mhurhangee/patent-ind-claim-en huggingface dataset:
A kit configured for delivering a multi-layered beverage wherein the kit comprises: - a coffee component in the form of a liquid or liquid concentrate, for producing a dark layer, provided within individual pods containing a single serving; wherein the coffee component has a total solid content of less than 10% w/w; and - a creamer component in the form of a powder, for producing a white layer, contained in a sachet; wherein the creamer component has a total solid content of at least 10% w/w; wherein the creamer comprises a protein, a fat and a carbohydrate, and wherein the fat content in the creamer is at most 10% w/w of the creamer composition and the fat comprises a combination of milk fat and vegetable fat.. - a coffee component in the form of a liquid or liquid concentrate, for producing a dark layer, provided within individual pods containing a single serving; wherein the coffee component has a total solid content of less than 10% w/w; and - a creamer component in the form of a powder, for producing a white layer, contained in a sachet; wherein the creamer component has a total solid content of at least 10% w/w; wherein the creamer comprises a protein, a fat and a carbohydrate, and wherein the fat content in the creamer is at most 10% w/w of the creamer composition and the fat comprises a combination of milk fat and vegetable fat..
A hybrid system , comprising: a hybrid module including a hybrid module housing , an eMachine , the eMachine being an electrical machine, including a rotor and a stator , wherein the stator includes windings ; a clutch operatively connected to the eMachine to connect and disconnect the eMachine from an engine; and a cooling sleeve received inside the hybrid module housing , wherein the cooling sleeve and the hybrid module housing define a fluid channel for cooling the eMachine, wherein the stator of the eMachine is press-fitted inside the cooling sleeve , wherein the cooling sleeve has one or more tabs extending transverse to the rest of the cooling sleeve , wherein the cooling sleeve has spray openings , wherein the tabs of the cooling sleeve are secured to the hybrid module housing to position the spray openings at a position to spray the lubricant onto the windings to cool the stator , and wherein the cooling sleeve has a stator contacting surface contacting the stator, the stator contacting surface being flat and lacking a shoulder for locating the stator . a hybrid module housing , an eMachine , the eMachine being an electrical machine, including a rotor and a stator , wherein the stator includes windings ; a clutch operatively connected to the eMachine to connect and disconnect the eMachine from an engine; and a cooling sleeve received inside the hybrid module housing , wherein the cooling sleeve and the hybrid module housing define a fluid channel for cooling the eMachine, wherein the stator of the eMachine is press-fitted inside the cooling sleeve , wherein the cooling sleeve has one or more tabs extending transverse to the rest of the cooling sleeve , wherein the cooling sleeve has spray openings , wherein the tabs of the cooling sleeve are secured to the hybrid module housing to position the spray openings at a position to spray the lubricant onto the windings to cool the stator , and wherein the cooling sleeve has a stator contacting surface contacting the stator, the stator contacting surface being flat and lacking a shoulder for locating the stator .
Method for producing an indium-containing layer by metal-organic vapor phase deposition, wherein the indium-containing layer is generated on a substrate in a reaction chamber , wherein the indium is supplied to the method in the form of an indium-containing precursor compound with the formula InR 3 , wherein the radicals R, independently of one another, are selected from alkyl radicals with 1 to 6 C-atoms, characterized in that the supply of the indium-containing precursor compound occurs in a solution consisting of (a) 5 to 60 wt% of a compound of formula InR 3 , wherein R is selected from alkyl radicals with 1 to 6 C-atoms, independently of one another, and (b) 40 to 95 wt% of at least one hydrocarbon which has 5 to 8 carbon atoms. (a) 5 to 60 wt% of a compound of formula InR 3 , wherein R is selected from alkyl radicals with 1 to 6 C-atoms, independently of one another, and (b) 40 to 95 wt% of at least one hydrocarbon which has 5 to 8 carbon atoms.
An interconnection structure comprising: at least three magnetic tunnel junction structures disposed on a substrate , a first magnetic tunnel junction structure of the at least three magnetic tunnel junction structures comprising: a patterned film stack comprising a first ferromagnetic layer , a tunneling barrier layer and a second ferromagnetic layer disposed on and contacting a top surface of a first lower interconnection structure , wherein the first ferromagnetic layer and the second ferromagnetic layer sandwich the tunneling barrier layer ; and a patterned hardmask layer disposed on the first ferromagnetic layer , the patterned hardmask layer is configured to form a barrier to etching of the patterned film stack; a spin orbit torque (SOT) layer having a bottommost surface disposed on and contacting a top surface of the patterned hardmask layer, wherein the SOT layer is electrically conductive; and multiple back end structures disposed on the SOT layer . at least three magnetic tunnel junction structures disposed on a substrate , a first magnetic tunnel junction structure of the at least three magnetic tunnel junction structures comprising: a patterned film stack comprising a first ferromagnetic layer , a tunneling barrier layer and a second ferromagnetic layer disposed on and contacting a top surface of a first lower interconnection structure , wherein the first ferromagnetic layer and the second ferromagnetic layer sandwich the tunneling barrier layer ; and a patterned hardmask layer disposed on the first ferromagnetic layer , the patterned hardmask layer is configured to form a barrier to etching of the patterned film stack; a patterned film stack comprising a first ferromagnetic layer , a tunneling barrier layer and a second ferromagnetic layer disposed on and contacting a top surface of a first lower interconnection structure , wherein the first ferromagnetic layer and the second ferromagnetic layer sandwich the tunneling barrier layer ; and a patterned hardmask layer disposed on the first ferromagnetic layer , the patterned hardmask layer is configured to form a barrier to etching of the patterned film stack; a spin orbit torque (SOT) layer having a bottommost surface disposed on and contacting a top surface of the patterned hardmask layer, wherein the SOT layer is electrically conductive; and multiple back end structures disposed on the SOT layer .
A method for use in a user equipment, UE, of managing a listen-before-talk, LBT, contention window size, the method comprising: transmitting a first burst of uplink subframes after a first LBT procedure, the LBT procedure performed using an LBT contention window size; determining a reference subframe based on the first burst of uplink subframes, the reference subframe associated with a reference hybrid automatic repeat request, HARQ, process identifier; receiving scheduling for a second burst of uplink subframes, the scheduling comprising, for each subframe of the second burst of uplink subframes, an associated HARQ process identifier and an associated new data indicator, NDI; when the UE determines the HARQ process identifier associated with at least one of the subframes of the second burst of uplink subframes matches the reference HARQ process identifier and the associated NDI indicates new data, resetting the LBT contention window size to a minimum value; when the UE determines the HARQ process identifier associated with at least one of the subframes of the second burst of uplink subframes matches the reference HARQ process identifier and the associated NDI indicates a retransmission, incrementing the LBT contention window size; and performing a second LBT procedure using the contention window size; characterized in that resetting the LBT contention window size to a minimum value comprises resetting LBT contention window sizes associated with all priority classes used by the UE. transmitting a first burst of uplink subframes after a first LBT procedure, the LBT procedure performed using an LBT contention window size; determining a reference subframe based on the first burst of uplink subframes, the reference subframe associated with a reference hybrid automatic repeat request, HARQ, process identifier; receiving scheduling for a second burst of uplink subframes, the scheduling comprising, for each subframe of the second burst of uplink subframes, an associated HARQ process identifier and an associated new data indicator, NDI; when the UE determines the HARQ process identifier associated with at least one of the subframes of the second burst of uplink subframes matches the reference HARQ process identifier and the associated NDI indicates new data, resetting the LBT contention window size to a minimum value; when the UE determines the HARQ process identifier associated with at least one of the subframes of the second burst of uplink subframes matches the reference HARQ process identifier and the associated NDI indicates a retransmission, incrementing the LBT contention window size; and performing a second LBT procedure using the contention window size;
A method of treating a substrate with a lighted dispenser in a washing appliance, wherein the lighted dispenser comprises: a light housing comprising a power source and source of light conductively connected to said power source ; and a treatment composition reservoir operatively connected to said light housing , said reservoir comprising a dispensing outlet ; wherein said lighted dispenser is sized and dimensioned to fit within an interior portion of a washing appliance, wherein said source of light provides a radiant flux between 1 mW and 500 W at wavelengths between 380 nm and 800 nm, and wherein the lighted dispenser comprises a locking member operatively connected to one or both of said light housing and said treatment composition reservoir , the method comprising the steps of: providing in said treatment composition reservoir a treatment composition comprising a photoactivator; attaching said lighted dispenser to said interior portion of said appliance; contacting in said appliance said treatment composition with said soiled substrate; and irradiating said treatment composition with visible light; a light housing comprising a power source and source of light conductively connected to said power source ; and a treatment composition reservoir operatively connected to said light housing , said reservoir comprising a dispensing outlet ; wherein said lighted dispenser is sized and dimensioned to fit within an interior portion of a washing appliance, wherein said source of light provides a radiant flux between 1 mW and 500 W at wavelengths between 380 nm and 800 nm, and wherein the lighted dispenser comprises a locking member operatively connected to one or both of said light housing and said treatment composition reservoir , the method comprising the steps of: providing in said treatment composition reservoir a treatment composition comprising a photoactivator; attaching said lighted dispenser to said interior portion of said appliance; contacting in said appliance said treatment composition with said soiled substrate; and irradiating said treatment composition with visible light; providing in said treatment composition reservoir a treatment composition comprising a photoactivator; attaching said lighted dispenser to said interior portion of said appliance; contacting in said appliance said treatment composition with said soiled substrate; and irradiating said treatment composition with visible light;
A mill , comprising: a mill body defining a plurality of blades extending in a direction from a center of rotation (CL) of the mill body to a gauge surface , the blades defining a cutting profile having a minimum diameter at a longitudinal endmost position, the minimum diameter smaller than a diameter of a drop ball , the cutting profile having a maximum intermediate diameter (d(int)) less than the diameter of the drop ball at a distance (L2) from the axial end of the mill which distance is at least equal to the diameter of the drop ball; shear cutters mounted on at least one of the plurality of blades , the shear cutters being mounted such that at least one shear cutter is mounted closer to the center of rotation (CL) of the mill body with respect to other cutters mounted to the at least one of the blades ; and at least one insert mounted to the at least one of the plurality of blades rotationally ahead of the shear cutters . a mill body defining a plurality of blades extending in a direction from a center of rotation (CL) of the mill body to a gauge surface , the blades defining a cutting profile having a minimum diameter at a longitudinal endmost position, the minimum diameter smaller than a diameter of a drop ball , the cutting profile having a maximum intermediate diameter (d(int)) less than the diameter of the drop ball at a distance (L2) from the axial end of the mill which distance is at least equal to the diameter of the drop ball; shear cutters mounted on at least one of the plurality of blades , the shear cutters being mounted such that at least one shear cutter is mounted closer to the center of rotation (CL) of the mill body with respect to other cutters mounted to the at least one of the blades ; and at least one insert mounted to the at least one of the plurality of blades rotationally ahead of the shear cutters .
A biosensor, comprising: a substrate ; a plurality of photodiodes embedded in the substrate ; a polarizing element disposed on the substrate ; a planarization layer disposed on the polarizing element ; and a sample isolation layer disposed on the planarization layer , wherein the material of the sample isolation layer is different from that of the planarization layer , and wherein the sample isolation layer has a plurality of openings as reaction sites for biosample immobilization. a substrate ; a plurality of photodiodes embedded in the substrate ; a polarizing element disposed on the substrate ; a planarization layer disposed on the polarizing element ; and a sample isolation layer disposed on the planarization layer , wherein the material of the sample isolation layer is different from that of the planarization layer , and wherein the sample isolation layer has a plurality of openings as reaction sites for biosample immobilization.
Method for producing fibres or threads, in which conditioned air is utilized for cooling freshly extruded filaments or for cooling treated fibre strands, or air is used for entangling or texturizing multifilament threads, comprising filtration of air contaminated by the production process, in which the air is suctioned through at least one filter element , and in which the filter element is held so as to be replaceable in a filter receptacle installation of an air duct system, characterized in that a plurality of filter elements are kept available in the filter receptacle installation in such a manner that a self-acting replacement of the contaminated filter element in the air duct system takes place when one of the filter elements is retrieved, wherein the filter elements are held in filter chambers that are disposed on top of one another and, when replacing the contaminated filter element , are connected to one another so as to form a gravity chute , wherein a vacuum for assisting the replacement of the filter elements is generated in a lower one of the filter chambers .
A control method for a refrigerator, the method comprising: detecting and confirming that a cumulative running time of a compressor is at least a running time threshold and an ice maker is currently in a working state, and controlling the ice maker to perform a defrosting operation of its evaporator after a current ice making cycle is ended, wherein the running time threshold is a time difference between a defrosting cycle of the ice making evaporator and the ice making cycle of the ice maker, and detecting and confirming that the cumulative running time is at least the running time threshold and the ice maker is currently in a non-working state, and controlling the ice maker to stop issuing an ice making request; and detecting and confirming that the cumulative running time reaches the defrosting cycle, and controlling the ice making evaporator to perform the defrosting operation. detecting and confirming that a cumulative running time of a compressor is at least a running time threshold and an ice maker is currently in a working state, and controlling the ice maker to perform a defrosting operation of its evaporator after a current ice making cycle is ended, wherein the running time threshold is a time difference between a defrosting cycle of the ice making evaporator and the ice making cycle of the ice maker, and detecting and confirming that the cumulative running time is at least the running time threshold and the ice maker is currently in a non-working state, and controlling the ice maker to stop issuing an ice making request; and detecting and confirming that the cumulative running time reaches the defrosting cycle, and controlling the ice making evaporator to perform the defrosting operation.
A method of wireless communications by a user equipment, UE , comprising: determining a transmit power budget; receiving signaling indicating how to allocate the transmit power budget across transmit chains for a physical uplink shared channel, PUSCH, transmission; allocating the transmit power budget across transmit chains that have a PUSCH transmission, wherein the transmit power budget is allocated across transmit chains by a multi-step procedure comprising: (a) scaling the transmission power budget by the ratio of a number of antenna ports with a non-zero PUSCH transmission to a number of configured antenna ports, and (b) splitting the resulting scaled power equally across the antenna ports on which non-zero PUSCH is to be transmitted; wherein the signaling indicates whether or not the UE can skip at least one step of the multi-step procedure for allocating the transmit power budget across transmit chains; and transmitting the PUSCH using the transmit chains according to the determined transmit power allocation. determining a transmit power budget; receiving signaling indicating how to allocate the transmit power budget across transmit chains for a physical uplink shared channel, PUSCH, transmission; (a) scaling the transmission power budget by the ratio of a number of antenna ports with a non-zero PUSCH transmission to a number of configured antenna ports, and (b) splitting the resulting scaled power equally across the antenna ports on which non-zero PUSCH is to be transmitted;
Brake cylinder with a locking device for mechanical brake force locking, in particular for rail vehicles, and with a service brake piston that can move within a housing , which piston can be moved by acting upon it with a pressure medium and engages with a piston tube , wherein the piston tube is designed to engage by means of a non-self-locking thread with a threaded nut mounted to rotate inside the housing , wherein the locking device co-operates with teeth of the threaded nut , wherein the locking device comprises one or more pawl(s) , a control piston , an emergency release element and a locking element of the emergency release element, characterised in that the locking device has an actuating device which comprises the control piston , the emergency release element designed in the form of an emergency release wedge , at least one locking element , at least one energy storage element and a connection for manual release.
An exhaust purification system comprising: a catalyst that is provided in an exhaust passage of an internal combustion engine to purify an exhaust gas; a catalyst temperature estimating unit configured to estimate a temperature of the catalyst based on an initial temperature of the catalyst at the time of starting of the internal combustion engine and a caloric value of the catalyst which changes depending on an operating state of the internal combustion engine ; a pre-stop catalyst temperature storing unit configured to store the temperature of the catalyst estimated by the catalyst temperature estimating unit immediately before stopping the internal combustion engine , as a pre-stop catalyst temperature; a first exhaust temperature storing unit configured to store a temperature of an exhaust gas flowing into the catalyst immediately before stopping the internal combustion engine , as a first exhaust temperature; a second exhaust temperature acquiring unit configured to aquire a temperature of an exhaust gas flowing into the catalyst at the time of starting the internal combustion engine , as a second exhaust temperature; an intake air temperature acquiring unit configured to aquire a temperature of air taken into the internal combustion engine at the time of starting the internal combustion engine , as an intake air temperature; and an initial catalyst temperature setting unit configured to set an initial temperature of the catalyst based on the pre-stop catalyst temperature, the first exhaust temperature, the second exhaust temperature, and the intake air temperature. a catalyst that is provided in an exhaust passage of an internal combustion engine to purify an exhaust gas; a catalyst temperature estimating unit configured to estimate a temperature of the catalyst based on an initial temperature of the catalyst at the time of starting of the internal combustion engine and a caloric value of the catalyst which changes depending on an operating state of the internal combustion engine ; a pre-stop catalyst temperature storing unit configured to store the temperature of the catalyst estimated by the catalyst temperature estimating unit immediately before stopping the internal combustion engine , as a pre-stop catalyst temperature; a first exhaust temperature storing unit configured to store a temperature of an exhaust gas flowing into the catalyst immediately before stopping the internal combustion engine , as a first exhaust temperature; a second exhaust temperature acquiring unit configured to aquire a temperature of an exhaust gas flowing into the catalyst at the time of starting the internal combustion engine , as a second exhaust temperature; an intake air temperature acquiring unit configured to aquire a temperature of air taken into the internal combustion engine at the time of starting the internal combustion engine , as an intake air temperature; and an initial catalyst temperature setting unit configured to set an initial temperature of the catalyst based on the pre-stop catalyst temperature, the first exhaust temperature, the second exhaust temperature, and the intake air temperature.