// ==========================================================================
// This is auto-generated by gf cli tool. DO NOT EDIT THIS FILE MANUALLY.
// ==========================================================================
package bank_arrange_main
import (
"context"
"database/sql"
"github.com/gogf/gf/database/gdb"
"github.com/gogf/gf/frame/g"
"github.com/gogf/gf/frame/gmvc"
"time"
)
// arModel is a active record design model for table bank_arrange_main operations.
type arModel struct {
gmvc.M
}
var (
// Table is the table name of bank_arrange_main.
Table = "bank_arrange_main"
// Model is the model object of bank_arrange_main.
Model = &arModel{g.DB("default").Model(Table).Safe()}
// Columns defines and stores column names for table bank_arrange_main.
Columns = struct {
Id string //
EntryNo string // 申请单号
TaskType string // 入库申请类型: 1.基点自动化设备 2 非基点普通设备
Status string // 0:未提交;1:提交待审核;2:审核通过;3:审核不通过; 4:确认过
OperationBy string // 申请人
Section string // 领用部门
EntryTime string // 申请时间
ConUserId string // 审核人Id
ConUserBy string // 审核人
ConTime string // 审核时间
TaskStatus string // 任务执行状态 0 未执行 1. 任务已发送 2. 任务已接收 3. 任务激活 4. 执行失败 5. 任务成功 6. 执行中 7. 已驳回
Remark string // 备注
Exception string // 异常信息
AuditorRemark string // 审核备注
CreateOn string //
CreateUserId string //
CreateBy string //
ModifiedOn string //
ModifiedUserId string //
ModifiedBy string //
Reason string // 原因,ID是字典明细
EquipmentId string // 设备id
ShelfAndBoxIds string // 选中的架子及盒子id
BoxCount string // 整理盒子数量
SampleCount string // 整理样本数量
}{
Id: "Id",
EntryNo: "EntryNo",
TaskType: "TaskType",
Status: "Status",
OperationBy: "OperationBy",
Section: "Section",
EntryTime: "EntryTime",
ConUserId: "ConUserId",
ConUserBy: "ConUserBy",
ConTime: "ConTime",
TaskStatus: "TaskStatus",
Remark: "Remark",
Exception: "Exception",
AuditorRemark: "AuditorRemark",
CreateOn: "CreateOn",
CreateUserId: "CreateUserId",
CreateBy: "CreateBy",
ModifiedOn: "ModifiedOn",
ModifiedUserId: "ModifiedUserId",
ModifiedBy: "ModifiedBy",
Reason: "Reason",
EquipmentId: "EquipmentId",
ShelfAndBoxIds: "ShelfAndBoxIds",
BoxCount: "BoxCount",
SampleCount: "SampleCount",
}
)
// Ctx is a chaining function, which creates and returns a new DB that is a shallow copy
// of current DB object and with given context in it.
// Note that this returned DB object can be used only once, so do not assign it to
// a global or package variable for long using.
func (m *arModel) Ctx(ctx context.Context) *arModel {
return &arModel{m.M.Ctx(ctx)}
}
// As sets an alias name for current table.
func (m *arModel) As(as string) *arModel {
return &arModel{m.M.As(as)}
}
// TX sets the transaction for current operation.
func (m *arModel) TX(tx *gdb.TX) *arModel {
return &arModel{m.M.TX(tx)}
}
// Master marks the following operation on master node.
func (m *arModel) Master() *arModel {
return &arModel{m.M.Master()}
}
// Slave marks the following operation on slave node.
// Note that it makes sense only if there's any slave node configured.
func (m *arModel) Slave() *arModel {
return &arModel{m.M.Slave()}
}
// LeftJoin does "LEFT JOIN ... ON ..." statement on the model.
// The parameter
can be joined table and its joined condition,
// and also with its alias name, like:
// Table("user").LeftJoin("user_detail", "user_detail.uid=user.uid")
// Table("user", "u").LeftJoin("user_detail", "ud", "ud.uid=u.uid")
func (m *arModel) LeftJoin(table ...string) *arModel {
return &arModel{m.M.LeftJoin(table ...)}
}
// RightJoin does "RIGHT JOIN ... ON ..." statement on the model.
// The parameter can be joined table and its joined condition,
// and also with its alias name, like:
// Table("user").RightJoin("user_detail", "user_detail.uid=user.uid")
// Table("user", "u").RightJoin("user_detail", "ud", "ud.uid=u.uid")
func (m *arModel) RightJoin(table ...string) *arModel {
return &arModel{m.M.RightJoin(table ...)}
}
// InnerJoin does "INNER JOIN ... ON ..." statement on the model.
// The parameter can be joined table and its joined condition,
// and also with its alias name, like:
// Table("user").InnerJoin("user_detail", "user_detail.uid=user.uid")
// Table("user", "u").InnerJoin("user_detail", "ud", "ud.uid=u.uid")
func (m *arModel) InnerJoin(table ...string) *arModel {
return &arModel{m.M.InnerJoin(table ...)}
}
// Fields sets the operation fields of the model, multiple fields joined using char ','.
func (m *arModel) Fields(fieldNamesOrMapStruct ...interface{}) *arModel {
return &arModel{m.M.Fields(fieldNamesOrMapStruct...)}
}
// FieldsEx sets the excluded operation fields of the model, multiple fields joined using char ','.
func (m *arModel) FieldsEx(fieldNamesOrMapStruct ...interface{}) *arModel {
return &arModel{m.M.FieldsEx(fieldNamesOrMapStruct...)}
}
// Option sets the extra operation option for the model.
func (m *arModel) Option(option int) *arModel {
return &arModel{m.M.Option(option)}
}
// OmitEmpty sets OPTION_OMITEMPTY option for the model, which automatically filers
// the data and where attributes for empty values.
func (m *arModel) OmitEmpty() *arModel {
return &arModel{m.M.OmitEmpty()}
}
// Filter marks filtering the fields which does not exist in the fields of the operated table.
func (m *arModel) Filter() *arModel {
return &arModel{m.M.Filter()}
}
// Where sets the condition statement for the model. The parameter can be type of
// string/map/gmap/slice/struct/*struct, etc. Note that, if it's called more than one times,
// multiple conditions will be joined into where statement using "AND".
// Eg:
// Where("uid=10000")
// Where("uid", 10000)
// Where("money>? AND name like ?", 99999, "vip_%")
// Where("uid", 1).Where("name", "john")
// Where("status IN (?)", g.Slice{1,2,3})
// Where("age IN(?,?)", 18, 50)
// Where(User{ Id : 1, UserName : "john"})
func (m *arModel) Where(where interface{}, args ...interface{}) *arModel {
return &arModel{m.M.Where(where, args...)}
}
// WherePri does the same logic as Model.Where except that if the parameter
// is a single condition like int/string/float/slice, it treats the condition as the primary
// key value. That is, if primary key is "id" and given parameter as "123", the
// WherePri function treats the condition as "id=123", but Model.Where treats the condition
// as string "123".
func (m *arModel) WherePri(where interface{}, args ...interface{}) *arModel {
return &arModel{m.M.WherePri(where, args...)}
}
// And adds "AND" condition to the where statement.
func (m *arModel) And(where interface{}, args ...interface{}) *arModel {
return &arModel{m.M.And(where, args...)}
}
// Or adds "OR" condition to the where statement.
func (m *arModel) Or(where interface{}, args ...interface{}) *arModel {
return &arModel{m.M.Or(where, args...)}
}
// Group sets the "GROUP BY" statement for the model.
func (m *arModel) Group(groupBy string) *arModel {
return &arModel{m.M.Group(groupBy)}
}
// Order sets the "ORDER BY" statement for the model.
func (m *arModel) Order(orderBy ...string) *arModel {
return &arModel{m.M.Order(orderBy...)}
}
// Limit sets the "LIMIT" statement for the model.
// The parameter can be either one or two number, if passed two number is passed,
// it then sets "LIMIT limit[0],limit[1]" statement for the model, or else it sets "LIMIT limit[0]"
// statement.
func (m *arModel) Limit(limit ...int) *arModel {
return &arModel{m.M.Limit(limit...)}
}
// Offset sets the "OFFSET" statement for the model.
// It only makes sense for some databases like SQLServer, PostgreSQL, etc.
func (m *arModel) Offset(offset int) *arModel {
return &arModel{m.M.Offset(offset)}
}
// Page sets the paging number for the model.
// The parameter is started from 1 for paging.
// Note that, it differs that the Limit function start from 0 for "LIMIT" statement.
func (m *arModel) Page(page, limit int) *arModel {
return &arModel{m.M.Page(page, limit)}
}
// Batch sets the batch operation number for the model.
func (m *arModel) Batch(batch int) *arModel {
return &arModel{m.M.Batch(batch)}
}
// Cache sets the cache feature for the model. It caches the result of the sql, which means
// if there's another same sql request, it just reads and returns the result from cache, it
// but not committed and executed into the database.
//
// If the parameter < 0, which means it clear the cache with given .
// If the parameter = 0, which means it never expires.
// If the parameter > 0, which means it expires after .
//
// The optional parameter is used to bind a name to the cache, which means you can later
// control the cache like changing the or clearing the cache with specified .
//
// Note that, the cache feature is disabled if the model is operating on a transaction.
func (m *arModel) Cache(duration time.Duration, name ...string) *arModel {
return &arModel{m.M.Cache(duration, name...)}
}
// Data sets the operation data for the model.
// The parameter can be type of string/map/gmap/slice/struct/*struct, etc.
// Eg:
// Data("uid=10000")
// Data("uid", 10000)
// Data(g.Map{"uid": 10000, "name":"john"})
// Data(g.Slice{g.Map{"uid": 10000, "name":"john"}, g.Map{"uid": 20000, "name":"smith"})
func (m *arModel) Data(data ...interface{}) *arModel {
return &arModel{m.M.Data(data...)}
}
// All does "SELECT FROM ..." statement for the model.
// It retrieves the records from table and returns the result as []*Entity.
// It returns nil if there's no record retrieved with the given conditions from table.
//
// The optional parameter is the same as the parameter of Model.Where function,
// see Model.Where.
func (m *arModel) All(where ...interface{}) ([]*Entity, error) {
all, err := m.M.All(where...)
if err != nil {
return nil, err
}
var entities []*Entity
if err = all.Structs(&entities); err != nil && err != sql.ErrNoRows {
return nil, err
}
return entities, nil
}
// One retrieves one record from table and returns the result as *Entity.
// It returns nil if there's no record retrieved with the given conditions from table.
//
// The optional parameter is the same as the parameter of Model.Where function,
// see Model.Where.
func (m *arModel) One(where ...interface{}) (*Entity, error) {
one, err := m.M.One(where...)
if err != nil {
return nil, err
}
var entity *Entity
if err = one.Struct(&entity); err != nil && err != sql.ErrNoRows {
return nil, err
}
return entity, nil
}
// FindOne retrieves and returns a single Record by Model.WherePri and Model.One.
// Also see Model.WherePri and Model.One.
func (m *arModel) FindOne(where ...interface{}) (*Entity, error) {
one, err := m.M.FindOne(where...)
if err != nil {
return nil, err
}
var entity *Entity
if err = one.Struct(&entity); err != nil && err != sql.ErrNoRows {
return nil, err
}
return entity, nil
}
// FindAll retrieves and returns Result by by Model.WherePri and Model.All.
// Also see Model.WherePri and Model.All.
func (m *arModel) FindAll(where ...interface{}) ([]*Entity, error) {
all, err := m.M.FindAll(where...)
if err != nil {
return nil, err
}
var entities []*Entity
if err = all.Structs(&entities); err != nil && err != sql.ErrNoRows {
return nil, err
}
return entities, nil
}
// Chunk iterates the table with given size and callback function.
func (m *arModel) Chunk(limit int, callback func(entities []*Entity, err error) bool) {
m.M.Chunk(limit, func(result gdb.Result, err error) bool {
var entities []*Entity
err = result.Structs(&entities)
if err == sql.ErrNoRows {
return false
}
return callback(entities, err)
})
}
// LockUpdate sets the lock for update for current operation.
func (m *arModel) LockUpdate() *arModel {
return &arModel{m.M.LockUpdate()}
}
// LockShared sets the lock in share mode for current operation.
func (m *arModel) LockShared() *arModel {
return &arModel{m.M.LockShared()}
}
// Unscoped enables/disables the soft deleting feature.
func (m *arModel) Unscoped() *arModel {
return &arModel{m.M.Unscoped()}
}