mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: obtaining an identification of a target product for sale by a merchant in a retail store, the identification originating from input at a user device; obtaining a recommended product based on at least one of: the target product, information from a profile associated with the user device, or a criterion provided by the merchant; and as the user device moves in the retail store: receiving user location data indicating a location of the user device, determining a particular route based on the user location data, a location of the target product, and a location of the recommended product, the particular route being based on a comparison of cost values between segments of alternative routes to the target product, each segment assigned a respective cost value, wherein the cost value of at least one of the segments is based on both the location of the target product and the location of the recommended product, generating an instruction guiding the user device along the particular route, and transmitting the instruction for output at the user device. obtaining an identification of a target product for sale by a merchant in a retail store, the identification originating from input at a user device; obtaining a recommended product based on at least one of: the target product, information from a profile associated with the user device, or a criterion provided by the merchant; and as the user device moves in the retail store: receiving user location data indicating a location of the user device, determining a particular route based on the user location data, a location of the target product, and a location of the recommended product, the particular route being based on a comparison of cost values between segments of alternative routes to the target product, each segment assigned a respective cost value, wherein the cost value of at least one of the segments is based on both the location of the target product and the location of the recommended product, generating an instruction guiding the user device along the particular route, and transmitting the instruction for output at the user device. receiving user location data indicating a location of the user device, determining a particular route based on the user location data, a location of the target product, and a location of the recommended product, the particular route being based on a comparison of cost values between segments of alternative routes to the target product, each segment assigned a respective cost value, wherein the cost value of at least one of the segments is based on both the location of the target product and the location of the recommended product, generating an instruction guiding the user device along the particular route, and transmitting the instruction for output at the user device.
A composition comprising HFO-1234yf and at least one additional compound selected from the group consisting of HCFO-1233zd, HCFO-1233yf, HCFO-1232xf, HCFO-1233xf, HCFO-1223za, HCFO-1224zb, HCFO-1231xf, HCO-1250xf, HCC-260da, HCC-260db, HCC-240aa, HCO-1230xa, HCFC-244bb, HCFC-244db, HFO-1234ze, HFC-245cb, HFO-1243zf, HFO-1225zc, HCFC-241db, and HCFC-242dc, wherein the composition comprises HCFO-1232xf.
Device for braking and positioning a printed sheet in a processing machine, wherein there is at least one means along the feed direction of the printed sheet which exerts a braking-force action on the printed sheet, and thus the positioning of the printed sheet is feasible in connection with the operational process of a downstream processing station (100, 101), characterized in that the device includes at least one first means which is designed for pneumatic braking-force triggering pulses acting on the printed sheet, and at least one second means for braking-force production, in that the first means (110, 114, 200) provides braking-force triggering pulses (112, 114) acting directly or indirectly on the printed sheet that are pneumatic and/or caused by a mechanical element, in that the second means provides at least one additional braking-force generating frictional force (210, 220) acting on the printed sheet which, in the feed direction, generates the formation of a negative pressure force acting on the underside of the printed sheet, in that, by means of the first and/or second means, intermittent, uniform or oscillating braking forces are generable on the printed sheet, and in that the braking forces are guided by a control unit, which are operable with variable control profiles resulting from the retrieved operating parameters and/or by means of stored control profiles.
A tape cartridge detachably installed on a tape printing apparatus provided with a detection portion which detects attribute information of the tape cartridge installed on a cartridge installation portion on which the tape cartridge is installed, the tape cartridge comprising: a wound printing tape; and a core shaft, wherein the core shaft is positioned at an inner peripheral side of the wound printing tape, the core shaft includes a detection object which faces the detection portion when the tape cartridge is installed on the tape printing apparatus, characterized in that the detection portion includes a plurality of conductive contacts connected to a detection circuit of binarized attribute information, the detection object has a wiring pattern substrate corresponding to the plurality of conductive contacts, and the detection object is provided in the inner periphery of the core shaft of the tape cartridge, wherein the detection object includes: a plurality of contact terminals including a contact portion coming in contact with the plurality of conductive contacts; and a conductive/non-conductive wiring portion that is connected to the plurality of contact terminals. a wound printing tape; and a core shaft, wherein the core shaft is positioned at an inner peripheral side of the wound printing tape, the core shaft includes a detection object which faces the detection portion when the tape cartridge is installed on the tape printing apparatus, characterized in that the detection portion includes a plurality of conductive contacts connected to a detection circuit of binarized attribute information, the detection object has a wiring pattern substrate corresponding to the plurality of conductive contacts, and the detection object is provided in the inner periphery of the core shaft of the tape cartridge, wherein the detection object includes: a plurality of contact terminals including a contact portion coming in contact with the plurality of conductive contacts; and a conductive/non-conductive wiring portion that is connected to the plurality of contact terminals. a plurality of contact terminals including a contact portion coming in contact with the plurality of conductive contacts; and a conductive/non-conductive wiring portion that is connected to the plurality of contact terminals.
A-hydraulic circuit comprising: a hydraulic pump (2a, 2b); operation means (9a, 9b) for setting a setting pressure of the hydraulic pump (2a, 2b); flow rate control means for controlling a discharge flow rate of the hydraulic pump (2a, 2b); control means for supplying a control pressure to the flow rate control means in order to set a· discharge pressure of the hydraulic pump (2a, 2b) to be the setting pressure; a relief valve device for reducing a main circuit pressure when the main circuit pressure exceeds a predetermined pressure; and an actuator (1a, 1b) connected to the main circuit via a closed center type directional control valve (4a, 4b), wherein the relief valve device includes a first valve unit having a pilot spool and a pilot spring, a position of the pilot spool being determined by a balance between a throttle pressure supplied from the main circuit (3a, 3b) via a throttle oil passage and, the control pressure and a biasing force of the pilot spring, and whereby the main circuit pressure is released outwardly via the throttle oil passage, and wherein the relief valve device further includes a second valve unit having a valve piston and a valve spring, a position of the valve piston being determined by a balance between the main circuit pressure and, the throttle pressure and the biasing force of the valve spring, and whereby the main circuit pressure is released outwardly. a hydraulic pump (2a, 2b); operation means (9a, 9b) for setting a setting pressure of the hydraulic pump (2a, 2b); flow rate control means for controlling a discharge flow rate of the hydraulic pump (2a, 2b); control means for supplying a control pressure to the flow rate control means in order to set a· discharge pressure of the hydraulic pump (2a, 2b) to be the setting pressure; a relief valve device for reducing a main circuit pressure when the main circuit pressure exceeds a predetermined pressure; and an actuator (1a, 1b) connected to the main circuit via a closed center type directional control valve (4a, 4b), wherein the relief valve device includes a first valve unit having a pilot spool and a pilot spring, a position of the pilot spool being determined by a balance between a throttle pressure supplied from the main circuit (3a, 3b) via a throttle oil passage and, the control pressure and a biasing force of the pilot spring, and whereby the main circuit pressure is released outwardly via the throttle oil passage, and wherein the relief valve device further includes a second valve unit having a valve piston and a valve spring, a position of the valve piston being determined by a balance between the main circuit pressure and, the throttle pressure and the biasing force of the valve spring, and whereby the main circuit pressure is released outwardly.
Method for handling reports on lost connections in a terminal device (UE5, 31, 93) which is capable of being in communication connection with a plurality of network access nodes (AN6, 32, 34, 91, 92), wherein the terminal device (UE5, 31, 93) generates, after having lost connection to a first network access node (AN6, 32, 91), a report on the loss of connection and, upon or after reconnecting of the terminal device (UE5, 31, 93) with the first or a second network access node (AN6, 32, 34, 91, 92), sends the report on the loss of connection to the first or second network access node (AN6, 32, 34, 91, 92), wherein the terminal device (UE5, 31, 93) stores said report when the terminal device (UE5, 31, 93) is reconnected to a third network access node (AN6, 34, 92) being an access node of a different access technology, network or network operator than the first network access node (AN6, 32, 91) to which the terminal device (UE5, 31, 93) was connected before loss of connection.
A method of processing data using a Graphic Processing Unit, GPU, the method performed by a GPU Single Instruction Multiple Data, GSIMD unit, including a data handler and a frame buffer manager, the method comprising: obtaining, from a CPU, by the data handler, operand data and operator information to be applied to the operand data, wherein the size unit of operand data is 4 or 2 byte; partitioning, by the data handler, each unit of the operand data for parallel processing on the GPU, wherein each partitioned operand data is transformed into a graphic data format, wherein the graphic data format is a format being stored in a texel, and wherein the size of a channel element of the texel is 1 byte; transmitting, by a frame buffer manager, an instruction which controls the GPU to return an operation result by performing an operation for the partitioned data and transmitting the partitioned data; and obtaining, by the frame buffer manager, each result value of the parallel operation from the GPU, wherein the each result value is in the graphic data format. obtaining, from a CPU, by the data handler, operand data and operator information to be applied to the operand data, wherein the size unit of operand data is 4 or 2 byte; partitioning, by the data handler, each unit of the operand data for parallel processing on the GPU, wherein each partitioned operand data is transformed into a graphic data format, wherein the graphic data format is a format being stored in a texel, and wherein the size of a channel element of the texel is 1 byte; transmitting, by a frame buffer manager, an instruction which controls the GPU to return an operation result by performing an operation for the partitioned data and transmitting the partitioned data; and obtaining, by the frame buffer manager, each result value of the parallel operation from the GPU, wherein the each result value is in the graphic data format.
A headphone (3, 4) comprising a body forming a chamber for enclosing an ear of a user of the headphone (3, 4), the body having an acoustic seal made of a flexible material surrounding the chamber, the body having at least one cushion extending around the acoustic seal and separate from the acoustic seal, the at least one cushion having a first side face for engaging with the head of the user, and the body having a second side face opposite the first side face, the headphone having venting means (47, 49, 50) in the at least one cushion, characterized in that the venting means (47, 49, 50) is between the first side face and the second side face, the venting means comprising a plurality of openings in the first side face, a plurality of openings in the second side face, and a cavity which connects the first side face openings to the second side face openings.
Crane, which includes - a base for attaching the crane to a work machine, - a pillar boom attached rotatably to the base, - a lifting boom comprising a first end and a second end, the lifting boom being pivoted at the first end to the pillar boom, - a folding boom comprising two ends, the folding boom being pivoted at the second end of the lifting boom, in order to suspend a tool from the crane, - a lifting cylinder comprising a first end and a second end, the lifting cylinder being pivoted at the first end in connection with the pillar boom and at the second end to the lifting boom, in order to operate the lifting boom, - a folding cylinder comprising a first end and a second end, the folding cylinder being pivoted at the first end to the lifting boom and at the second end to the folding boom, in order to operate the folding boom, in which the lifting boom includes a first pivot point for connecting the pillar boom to the lifting boom and receiving moments acting on the lifting boom, a second pivot point for connecting the lifting cylinder to the lifting boom, and a third pivot point for connecting the folding cylinder to the lifting boom, characterized in that the said lifting boom further includes a hollow cast connecting piece arranged at the first end of the lifting boom, in which connecting piece at least the first pivot point and the second pivot point and the third pivot point are arranged and the connecting piece includes an opening for routing conductors, preferably hydraulic conductors, through the connecting piece and into the lifting boom. - a base for attaching the crane to a work machine, - a pillar boom attached rotatably to the base, - a lifting boom comprising a first end and a second end, the lifting boom being pivoted at the first end to the pillar boom, - a folding boom comprising two ends, the folding boom being pivoted at the second end of the lifting boom, in order to suspend a tool from the crane, - a lifting cylinder comprising a first end and a second end, the lifting cylinder being pivoted at the first end in connection with the pillar boom and at the second end to the lifting boom, in order to operate the lifting boom, - a folding cylinder comprising a first end and a second end, the folding cylinder being pivoted at the first end to the lifting boom and at the second end to the folding boom, in order to operate the folding boom,
A computer-implemented method for generating a prediction model for predicting rotor blade damages of a wind turbine, wherein the method processes previously acquired data, said data comprising data sets for a plurality of wind turbines, where each data set refers to a specific wind turbine and comprises respective values of variables, the variables including one or more turbine variables (T1, T2,..., T10) defining characteristics of the specific wind turbine, one or more weather variables (W1, W2,..., W4) defining weather conditions averaged over the operation time of the specific wind turbine and one or more damage variables (D1, D2,..., D19) defining damages having occurred on at least one rotor blade of the specific wind turbine during the operation time of the specific wind turbine, wherein the method comprises the following steps: a) discretizing the values of those variables which are numerical variables, resulting in modified data sets (DS'); b) structure learning of a plurality of Bayesian networks (BN1, BN2..., BNN) based on the modified data sets (DS'), where each Bayesian network (BN1, BN2..., BNN) is a probabilistic directed acyclic graph comprising the variables as nodes and defining the probabilistic dependencies between nodes by directed edges and where each Bayesian network (BN1, BN2..., BNN) is learned by another learning method; c) determining an optimum Bayesian network out of the plurality of Bayesian networks (BN1, BN2..., BNN) based on a performance measure reflecting the prediction quality of a respective Bayesian network (BN1, BN2..., BNN), where the optimum Bayesian network has the best performance measure; d) parameter learning of the optimum Bayesian network based on the modified data sets (DS'), resulting in conditional probabilities between variables representing nodes linked by respective directed edges in the optimum Bayesian network, where the optimum Bayesian network in combination with the conditional probabilities is the prediction model. a) discretizing the values of those variables which are numerical variables, resulting in modified data sets (DS'); b) structure learning of a plurality of Bayesian networks (BN1, BN2..., BNN) based on the modified data sets (DS'), where each Bayesian network (BN1, BN2..., BNN) is a probabilistic directed acyclic graph comprising the variables as nodes and defining the probabilistic dependencies between nodes by directed edges and where each Bayesian network (BN1, BN2..., BNN) is learned by another learning method; c) determining an optimum Bayesian network out of the plurality of Bayesian networks (BN1, BN2..., BNN) based on a performance measure reflecting the prediction quality of a respective Bayesian network (BN1, BN2..., BNN), where the optimum Bayesian network has the best performance measure; d) parameter learning of the optimum Bayesian network based on the modified data sets (DS'), resulting in conditional probabilities between variables representing nodes linked by respective directed edges in the optimum Bayesian network, where the optimum Bayesian network in combination with the conditional probabilities is the prediction model.
A traction converter comprising: plural semiconductor elements included in a traction converting circuit; and a coolers to radiate heat from the plural semiconductor elements to outside air, the cooler including a heat receiving block, plural heat pipes (1720, 1730) and plural heat radiation fins, the plural semiconductor elements being arrayed on one surface of the heat receiving block, heat receiving parts of the plural heat pipes being buried in the other surface of the heat receiving block, heat radiation parts of the plural heat pipes being erectly provided so as to protrude from the heat receiving block, the plural heat radiation fins being joined to the heat radiation parts, and the semiconductor elements being provided at three places in a cooling wind flow direction. wherein, when regions at which the plural heat radiation fins are provided are defined at even intervals in the cooling wind flow direction as an up-wind region, a mid-wind region and a down-wind region, a heat radiation fin surface area at the up-wind region is in a range of 0.33 to 0.42 times of a heat radiation fin surface area at the down-wind region, characterised in that: a heat radiation fin surface area at the mid-wind region is in a range of 0.42 to 0.63 times of the heat radiation fin surface area at the down-wind region.
A method of manufacturing a protective helmet, in particular a bicycle helmet, which has a shock-absorbing helmet body having a concave inner side and a convex outer side and which has an outer shell arranged at the outer side of the helmet body, characterized by the steps: - placing the outer shell into a mold; and - filling a casting material into the mold at at least one filling point to form the helmet body, wherein the casting material connects to an inner side of the outer shell, wherein the filling point is provided at the outer side of the helmet body formed, with the outer shell having an opening in the region of the filling point. - placing the outer shell into a mold; and - filling a casting material into the mold at at least one filling point to form the helmet body, wherein the casting material connects to an inner side of the outer shell,
A method of constructing a secure enclosure body, the method comprising: providing a moulded plastic shell body, wherein the moulded plastic shell body comprises a rear wall, opposing vertical side walls (104,106) coupled to the rear wall, and an upper wall and a lower wall both coupled to the rear wall, wherein the opposing vertical side walls (104,106), the upper wall and the lower wall together define an opening; coupling a mould to the moulded plastic shell body to define a cavity between the mould and the moulded plastic shell body; inserting concrete into the cavity; and removing the mould when the concrete has sufficiently set to provide a secure enclosure body; characterised in that the moulded plastic shell body incorporates a mesh reinforcement and the edge of each of the opposing vertical side walls (104,106), the upper wall and the lower wall comprises a continuous protrusion that surrounds the opening and extends outwardly with respect to the opening and wherein the continuous protrusion is substantially C-shaped to define a channel between a flange of the protrusion and an adjacent one of the opposing vertical side walls (104,106), the upper wall and the lower wall, and wherein the step of coupling comprises abutting the mould against the flange of the continuous protrusion, so that the continuous protrusion matches the desired final wall thickness of the secure enclosure body. providing a moulded plastic shell body, wherein the moulded plastic shell body comprises a rear wall, opposing vertical side walls (104,106) coupled to the rear wall, and an upper wall and a lower wall both coupled to the rear wall, wherein the opposing vertical side walls (104,106), the upper wall and the lower wall together define an opening; coupling a mould to the moulded plastic shell body to define a cavity between the mould and the moulded plastic shell body; inserting concrete into the cavity; and removing the mould when the concrete has sufficiently set to provide a secure enclosure body; characterised in that the moulded plastic shell body incorporates a mesh reinforcement and the edge of each of the opposing vertical side walls (104,106), the upper wall and the lower wall comprises a continuous protrusion that surrounds the opening and extends outwardly with respect to the opening and wherein the continuous protrusion is substantially C-shaped to define a channel between a flange of the protrusion and an adjacent one of the opposing vertical side walls (104,106), the upper wall and the lower wall, and wherein the step of coupling comprises abutting the mould against the flange of the continuous protrusion, so that the continuous protrusion matches the desired final wall thickness of the secure enclosure body.