mhurhangee/patent-ind-claim-en huggingface dataset:
A work machine comprising: an engine ; a hydraulic pump driven by the engine ; a swing structure ; an electric motor for driving the swing structure ; a hydraulic motor for driving the swing structure , the hydraulic motor being driven by the hydraulic pump ; a swing control lever device that commands the swing structure to be driven; a swing control lever operating stroke detection device that detects a swing operating stroke of the swing control lever device ; a swing speed detection device that detects the swing speed of the swing structure ; and a control device that operates in either an electric swing mode in which the swing structure is driven under the condition that torque of the electric motor is set to be a large value relative to torque of the hydraulic motor or a hydraulic swing mode in which the swing structure is driven under the condition that torque of the electric motor is set to be a small value relative to torque of the hydraulic motor , characterized in that the control device acquires the swing operating stroke of the swing control lever device detected by the swing control lever operating stroke detection device and the swing speed of the swing structure detected by the swing speed detection device , and the control device operates in the electric swing mode when the swing operating stroke of the swing control lever device is smaller than a previously set value and/or the swing speed of the swing structure is lower than a previously set value. an engine ; a hydraulic pump driven by the engine ; a swing structure ; an electric motor for driving the swing structure ; a hydraulic motor for driving the swing structure , the hydraulic motor being driven by the hydraulic pump ; a swing control lever device that commands the swing structure to be driven; a swing control lever operating stroke detection device that detects a swing operating stroke of the swing control lever device ; a swing speed detection device that detects the swing speed of the swing structure ; and a control device that operates in either an electric swing mode in which the swing structure is driven under the condition that torque of the electric motor is set to be a large value relative to torque of the hydraulic motor or a hydraulic swing mode in which the swing structure is driven under the condition that torque of the electric motor is set to be a small value relative to torque of the hydraulic motor , characterized in that the control device acquires the swing operating stroke of the swing control lever device detected by the swing control lever operating stroke detection device and the swing speed of the swing structure detected by the swing speed detection device , and the control device operates in the electric swing mode when the swing operating stroke of the swing control lever device is smaller than a previously set value and/or the swing speed of the swing structure is lower than a previously set value.
Frame for a vehicle with at least one structural part , wherein the structural part is produced as a casting in a mould , and the mould reproduces the three-dimensional outer shape of the structural part , characterized in that the structural part is formed by a self-swelling foam resin , the structural part being at least partially coated from the outside with a protective layer , wherein at least two existing structural parts form a supporting part of the frame . the structural part is produced as a casting in a mould , and the mould reproduces the three-dimensional outer shape of the structural part , characterized in that the structural part is formed by a self-swelling foam resin , the structural part being at least partially coated from the outside with a protective layer , wherein at least two existing structural parts form a supporting part of the frame .
A cooking apparatus comprising: a cooking chamber configured to receive a food item; an infrared lighting unit comprising one or more infrared light sources configured to provide infrared radiation to the food item received in the cooking chamber, the infrared lighting unit being positioned such that the food item is exposed to infrared radiation from the one or more infrared light sources; a shielding unit comprising one or more shielding elements respectively positioned between each of the one or more infrared light sources of the infrared lighting unit and the cooking chamber; a first air guiding unit configured to conduce air flow through the shielding unit; and a second air guiding unit configured to circulate hot air inside the cooking apparatus to heat the food item received inside the cooking chamber. a cooking chamber configured to receive a food item; an infrared lighting unit comprising one or more infrared light sources configured to provide infrared radiation to the food item received in the cooking chamber, the infrared lighting unit being positioned such that the food item is exposed to infrared radiation from the one or more infrared light sources; a shielding unit comprising one or more shielding elements respectively positioned between each of the one or more infrared light sources of the infrared lighting unit and the cooking chamber; a first air guiding unit configured to conduce air flow through the shielding unit; and a second air guiding unit configured to circulate hot air inside the cooking apparatus to heat the food item received inside the cooking chamber.
A child seat having at least one seat body comprising a seat surface for a child, having a ventilation system for guiding and/or implementing an air stream for regulating a temperature of the child, and having ventilation openings disposed in at least one ventilation region for guiding the air stream toward the child and/or for guiding the air stream away from the child, the at least one seat body being implemented from a closed hollow body and the ventilation openings being disposed in a wall of the hollow body , characterized in that the seat body is covered by an overlay , that the ventilation system comprises a heating unit , and that the heating unit is disposed between the seat body and the overlay . a ventilation system for guiding and/or implementing an air stream for regulating a temperature of the child, and having ventilation openings disposed in at least one ventilation region for guiding the air stream toward the child and/or for guiding the air stream away from the child, the at least one seat body being implemented from a closed hollow body and the ventilation openings being disposed in a wall of the hollow body , characterized in that the seat body is covered by an overlay , that the ventilation system comprises a heating unit , and that the heating unit is disposed between the seat body and the overlay .
A light emitting diode, LED, component comprising: an array of LED chips comprising first , second and third groups of LED chips, said first group of LED chips being a first group of red emitting LED chips; and a molded lens over said array, characterized in that said first group of red emitting LED chips is arranged so that no two of the first group of red emitting LED chips have parallel surfaces facing each other that overlap by 50 percent or more, and wherein less than 50 percent of the red emitting LED chips in said first group of red emitting LED chips are on the perimeter of said array; the second and third groups of LED chips being second and third groups of blue shifted yellow, BSY, LED chips, wherein the BSY LED chips are phosphor coated LEDs having LEDs that emit light having a dominant wavelength in the range from 430nm to 480nm and a phosphor which, when excited, emits light having a dominant wavelength in the range from 555nm to 585nm; and the said second and third groups of BSY LED chips emit different color combinations of LED light and phosphor light such that said second and third groups of BSY LED chips emit respective colors of light. an array of LED chips comprising first , second and third groups of LED chips, said first group of LED chips being a first group of red emitting LED chips; and a molded lens over said array, characterized in that said first group of red emitting LED chips is arranged so that no two of the first group of red emitting LED chips have parallel surfaces facing each other that overlap by 50 percent or more, and wherein less than 50 percent of the red emitting LED chips in said first group of red emitting LED chips are on the perimeter of said array; the second and third groups of LED chips being second and third groups of blue shifted yellow, BSY, LED chips, wherein the BSY LED chips are phosphor coated LEDs having LEDs that emit light having a dominant wavelength in the range from 430nm to 480nm and a phosphor which, when excited, emits light having a dominant wavelength in the range from 555nm to 585nm; and the said second and third groups of BSY LED chips emit different color combinations of LED light and phosphor light such that said second and third groups of BSY LED chips emit respective colors of light.
Charging device for wirelessly charging an electric energy store of a mobile terminal for a motor vehicle, wherein the charging device has - charging electronics ; and - a housing in which the charging electronics are arranged; - wherein the housing has a support area for supporting the mobile terminal ; - wherein the support area has at least two raised areas that extend in the direction of the length of the support region and have a respective first predetermined height, which raised areas are arranged parallel to one another with a predetermined spacing and form an air channel when the mobile terminal is supported; - wherein the housing has at least one air inlet opening and at least one air outlet opening ; - wherein the air outlet opening is arranged in the support area and is configured to blow air into the air channel ; characterised in that - at least one barrier is arranged in the air channel and is configured to swirl the air discharged into the air channel ; - wherein the at least one barrier comprises a first swirling raised area , which is arranged perpendicular to the raised areas that extend in the direction of the length of the support area; - wherein the first swirling raised area extends in width across the predetermined spacing of the air channel; and - wherein the at least one barrier has a ramp, which rises in the direction of air flow. - charging electronics ; and - a housing in which the charging electronics are arranged; - wherein the housing has a support area for supporting the mobile terminal ; - wherein the support area has at least two raised areas that extend in the direction of the length of the support region and have a respective first predetermined height, which raised areas are arranged parallel to one another with a predetermined spacing and form an air channel when the mobile terminal is supported; - wherein the housing has at least one air inlet opening and at least one air outlet opening ; - wherein the air outlet opening is arranged in the support area and is configured to blow air into the air channel ; - at least one barrier is arranged in the air channel and is configured to swirl the air discharged into the air channel ; - wherein the at least one barrier comprises a first swirling raised area , which is arranged perpendicular to the raised areas that extend in the direction of the length of the support area; - wherein the first swirling raised area extends in width across the predetermined spacing of the air channel; and - wherein the at least one barrier has a ramp, which rises in the direction of air flow.
An endorsing node, comprising: a network interface configured to receive a blockchain request from a client application; and a processor configured to determine a network latency between the client application and the endorsing node based on a network path between the client application and the endorsing node, extract a timestamp from the blockchain request, determine whether the extracted timestamp is invalid based on the network latency between the client application and the endorsing node, and in response to a determination that the timestamp is valid, generate an endorsement for the blockchain request and control the network interface to transmit the endorsement to the client application. a network interface configured to receive a blockchain request from a client application; and a processor configured to determine a network latency between the client application and the endorsing node based on a network path between the client application and the endorsing node, extract a timestamp from the blockchain request, determine whether the extracted timestamp is invalid based on the network latency between the client application and the endorsing node, and in response to a determination that the timestamp is valid, generate an endorsement for the blockchain request and control the network interface to transmit the endorsement to the client application.
A method of controlling an automation framework for a plurality of devices (D 1 , D 2 , ..., D x ) in a manufacturing system for containers with food content, each of the devices being connected to respective associated control modules (CM 1 , CM 2 , ..., CM x ) having sets of control functionalities (f 1n , f 2m , ..., f xo ) controlling the function of the plurality of devices in response to equipment functions (E F ) communicating with the control modules to activate a series (SQ 1 , SQ 2 , ..., SQ x ) of said control functionalities, wherein, for a first device (D 1 ) of the plurality of devices, in an associated first control module (CM 1 ), a first control functionality (f 11 ) is in dependence of a second control functionality (f 12 ) in a first series (SQ 1 ) of control functionalities, whereby a change of status of the first control functionality to control the first device is associated with a change of status of the second control functionality, characterized in that the method comprises; isolating the first and second control functionalities from each other so that the first and second control functionalities are independently accessible to a control unit as respective first (F 11 ) and second (F 12 ) isolated control functionalities, whereby the status of the first isolated control functionality is independent of the status of the second isolated control functionality, whereby the first device and a second device (D 2 ) of the plurality of devices each has respective first (F 1n ) and second (F 2m ) sets of isolated control functional ities, generating a set of combined control functionalities (GF 1 , GF 2 , ..., GF p ) for the first and/or the second device based on the first and second sets of isolated control functionalities, wherein the set of combined control functionalities are individually accessible to the control unit, and controlling at least the first and/or second device of the plurality of devices based on at least the set of combined control functionalities with an application manager configured to communicate with the control unit.
An arrangement for a liquefied gas fuel system for a vehicle , said fuel system having two separate liquefied gas fuel tanks (TM, TS) for providing fuel to the engine (E) of the vehicle , said fuel tanks (TM, TS) being in fluid communication via a connection arrangement (10; 110) comprising a set of rigid pipes (P), characterized in that said connection arrangement (10; 110) comprises interface elements (12, 14; 112, 114) for the respective tank (TM, TS) and a set of flexible hoses (HM, HS) directly connected to the respective tank (TM, TS), wherein the set of flexible hoses (HM, HS) for the respective tank (TM, TS) are connected to the set of rigid pipes (P) via the respective interface elements (12, 14; 112, 114).
A vacuum pump, in particular a rotary vane vacuum pump, comprising at least one pump stage and a first electric motor drive-effectively connected to the pump stage , wherein the vacuum pump further comprises a first and a second fan , each driven by a second electric motor , for cooling the vacuum pump, characterized in that the at least one pump stage is contained in a pump housing and the first electric motor is contained in a motor housing which extends in axial continuation of the pump housing , with both the pump housing and the motor housing each having a first end and a second end disposed opposite the first end in the axial direction, with the first end of the pump housing being at least indirectly connected to the first end of the motor housing , and with the first fan being fastened to the second end of the pump housing and the second fan being fastened to the second end of the motor housing . wherein the vacuum pump further comprises a first and a second fan , each driven by a second electric motor , for cooling the vacuum pump, characterized in that the at least one pump stage is contained in a pump housing and the first electric motor is contained in a motor housing which extends in axial continuation of the pump housing , with both the pump housing and the motor housing each having a first end and a second end disposed opposite the first end in the axial direction, with the first end of the pump housing being at least indirectly connected to the first end of the motor housing , and with the first fan being fastened to the second end of the pump housing and the second fan being fastened to the second end of the motor housing .
A method of transmitting data over a communication channel, the method comprising: receiving a plurality of information symbols: encoding an NxM array containing the plurality of information symbols into a two-dimensional array of orthogonal time frequency space, OTFS, modulation symbols wherein the array of OTFS modulation symbols is included in a time frequency frame along with one or more OFDM symbols, the encoding being performed in accordance with an OTFS transform given by: X n m = 1 MN W tr n m ∑ k = 0 N = 1 ∑ l = 0 M = 1 x l k b k , l n m b k , l n m = e j 2 π ml M − nk N where x [ l,k ] ,k = 0, ..., N ― 1 , l = 0,..., M ― 1 represents the NxM array containing the plurality of information symbols, X [ n, m ], n = 0, ..., N ― 1, m = 0, ..., M ― 1 represents the two-dimensional array of modulation symbols, W tr [ n, m] is a windowing function, and b k,l [ n, m] represents a plurality of two-dimensional basis functions related to an inverse symplectic transform; transmitting the two-dimensional array of OTFS modulation symbols using M subcarriers; and transmitting the one or more OFDM symbols using at least one OFDM subcarrier. encoding an NxM array containing the plurality of information symbols into a two-dimensional array of orthogonal time frequency space, OTFS, modulation symbols wherein the array of OTFS modulation symbols is included in a time frequency frame along with one or more OFDM symbols, the encoding being performed in accordance with an OTFS transform given by: X n m = 1 MN W tr n m ∑ k = 0 N = 1 ∑ l = 0 M = 1 x l k b k , l n m b k , l n m = e j 2 π ml M − nk N where x [ l,k ] ,k = 0, ..., N ― 1 , l = 0,..., M ― 1 represents the NxM array containing the plurality of information symbols, X [ n, m ], n = 0, ..., N ― 1, m = 0, ..., M ― 1 represents the two-dimensional array of modulation symbols, W tr [ n, m] is a windowing function, and b k,l [ n, m] represents a plurality of two-dimensional basis functions related to an inverse symplectic transform; transmitting the two-dimensional array of OTFS modulation symbols using M subcarriers; and transmitting the one or more OFDM symbols using at least one OFDM subcarrier.
A blower system for a gas turbine engine, the blower system comprising: a rotor assembly configured to be mechanically coupled to a spool of the gas turbine engine; an airframe port configured to receive and discharge air to an airframe system ; wherein the blower system is configured to operate in an engine drive mode in which air received from the airframe port drives a rotor of the rotor assembly to rotate the spool, and in a blower mode in which the spool drives the rotor to discharge air to the airframe port; and a routing-control valve comprising: a primary channel for bidirectional flow between the rotor assembly and the airframe port; a primary valve member configured to open and close the primary channel; an auxiliary channel branched from the primary channel and configured to bypass the primary valve member for: a first auxiliary flow from the airframe port to the rotor assembly; or a second auxiliary flow for purging air from the rotor assembly to a discharge port . a rotor assembly configured to be mechanically coupled to a spool of the gas turbine engine; an airframe port configured to receive and discharge air to an airframe system ; wherein the blower system is configured to operate in an engine drive mode in which air received from the airframe port drives a rotor of the rotor assembly to rotate the spool, and in a blower mode in which the spool drives the rotor to discharge air to the airframe port; and a routing-control valve comprising: a primary channel for bidirectional flow between the rotor assembly and the airframe port; a primary valve member configured to open and close the primary channel; an auxiliary channel branched from the primary channel and configured to bypass the primary valve member for: a first auxiliary flow from the airframe port to the rotor assembly; or a second auxiliary flow for purging air from the rotor assembly to a discharge port . a primary channel for bidirectional flow between the rotor assembly and the airframe port; a primary valve member configured to open and close the primary channel; an auxiliary channel branched from the primary channel and configured to bypass the primary valve member for: a first auxiliary flow from the airframe port to the rotor assembly; or a second auxiliary flow for purging air from the rotor assembly to a discharge port . a first auxiliary flow from the airframe port to the rotor assembly; or a second auxiliary flow for purging air from the rotor assembly to a discharge port .