mhurhangee/patent-ind-claim-en huggingface dataset:
A progressing cavity pump system comprising a pump including: a rotor ; a stator having an inner cavity, said rotor being rotationally disposed inside said inner cavity of said stator such that rotation of said rotor relative to said stator causes material in said inner cavity to be pumped therethrough; a universal joint directly or indirectly rotationally coupled to said rotor , the universal joint having an outer shell , wherein said universal joint is a gear joint including a ball gear and a ring gear receiving said ball gear therein and rotationally coupled thereto, wherein said ball gear has a spherical surface, and wherein the gear joint further includes a thrust plate positioned adjacent to said ball gear and having a spherical recess in contact with said spherical surface of said ball gear ; characterised in that the progressive cavity pump system comprises a cooling system , wherein the cooling system includes a cooling jacket positioned over the outer shell to at least partially define a cooling chamber extending circumferentially about the outer shell , wherein the cooling chamber is fluidly isolated from the universal joint and configured to receive a cooling fluid to provide cooling effects to the universal joint by directly cooling an outer surface of the shell . a rotor ; a stator having an inner cavity, said rotor being rotationally disposed inside said inner cavity of said stator such that rotation of said rotor relative to said stator causes material in said inner cavity to be pumped therethrough; a universal joint directly or indirectly rotationally coupled to said rotor , the universal joint having an outer shell , wherein said universal joint is a gear joint including a ball gear and a ring gear receiving said ball gear therein and rotationally coupled thereto, wherein said ball gear has a spherical surface, and wherein the gear joint further includes a thrust plate positioned adjacent to said ball gear and having a spherical recess in contact with said spherical surface of said ball gear ; characterised in that the progressive cavity pump system comprises a cooling system , wherein the cooling system includes a cooling jacket positioned over the outer shell to at least partially define a cooling chamber extending circumferentially about the outer shell , wherein the cooling chamber is fluidly isolated from the universal joint and configured to receive a cooling fluid to provide cooling effects to the universal joint by directly cooling an outer surface of the shell .
A polymer electrolyte for a secondary battery, the polymer electrolyte comprising: a polymer represented by Formula 1 or Formula 2; and an electron-acceptor having at least one double bond, as a dopant: wherein R and R 5 are each independently carbon (C) or sulfur (S), R 1 and R 6 are each independently or wherein R 9 is -C(CF 3 ) 2 -, R 2 and R 7 are R 3 is -S (CF 2 ) 2 SO 3 - Li + , R 4 is wherein R 10 is-C(CF3) 2 - , R 8 is o and o1 are 1 or 2, p, p1, q, q1, r, and s are 0 or 1, a ratio of n : m is in a range of 95:5 to 5:95 as a molar ratio, and a ratio of n' : m' is in a range of 95:5 to 5:95 as a molar ratio. a polymer represented by Formula 1 or Formula 2; and an electron-acceptor having at least one double bond, as a dopant: wherein R and R 5 are each independently carbon (C) or sulfur (S), R 1 and R 6 are each independently or wherein R 9 is -C(CF 3 ) 2 -, R 2 and R 7 are R 3 is -S (CF 2 ) 2 SO 3 - Li + , R 4 is wherein R 10 is-C(CF3) 2 - , R 8 is o and o1 are 1 or 2, p, p1, q, q1, r, and s are 0 or 1, a ratio of n : m is in a range of 95:5 to 5:95 as a molar ratio, and a ratio of n' : m' is in a range of 95:5 to 5:95 as a molar ratio.
Heat-transfer liquid circuit for an electric vehicle that is propelled at least in part by an electric motor, the circuit comprising a first leg that has at least one pump , a first heat exchanger configured to exchange heat energy between the heat-transfer liquid and a refrigerant, an electric heating device and a second heat exchanger configured to exchange heat energy between the heat-transfer liquid and a flow of air intended to be sent into a vehicle interior, the circuit comprising a second leg that comprises a third heat exchanger thermally coupled to a component of an electric powertrain of the vehicle, the circuit comprising a third leg that is disposed in parallel with the first leg and connected to the latter by a member for distributing the heat-transfer liquid, characterized in that the circuit comprising a fourth leg that is mounted in parallel with the second leg and connected thereto by a branching device , the fourth leg comprising a fourth heat exchanger configured to exchange heat energy between the heat-transfer liquid and a refrigerant.
Injector cup for a fluid injection assembly for an internal combustion engine, wherein the injector cup comprises: - a cup body extending along a central longitudinal axis (A) of the injector cup from a first axial end of the cup body to a second axial end of the cup body and - a cup ring element which adjoins the border of the second axial end by radially extending beyond said border , wherein a base surface of the cup ring element faces away from the first axial end and defines a cup reference plane which extends orthogonally to the longitudinal axis (A), and wherein the cup ring element comprises two wings , wherein each wing has a free end section which extends bent away from the cup reference plane at the side of the cup reference plane which faces towards the cup body , wherein the two wings are spaced from each other and wherein a through opening is provided in the cup ring element between the two wings , characterized in that a cut line or a recess forming a shape like a T-profile with the through opening extends along the base surface in order to create the two wings each having an end face extending parallel or slightly inclined to the cup reference plane , wherein the end section of each wing bends away from the cup reference plane . - a cup body extending along a central longitudinal axis (A) of the injector cup from a first axial end of the cup body to a second axial end of the cup body and - a cup ring element which adjoins the border of the second axial end by radially extending beyond said border , wherein a base surface of the cup ring element faces away from the first axial end and defines a cup reference plane which extends orthogonally to the longitudinal axis (A), and wherein the cup ring element comprises two wings , wherein each wing has a free end section which extends bent away from the cup reference plane at the side of the cup reference plane which faces towards the cup body , wherein the two wings are spaced from each other and wherein a through opening is provided in the cup ring element between the two wings , characterized in that a cut line or a recess forming a shape like a T-profile with the through opening extends along the base surface in order to create the two wings each having an end face extending parallel or slightly inclined to the cup reference plane , wherein the end section of each wing bends away from the cup reference plane .
A method for the evaluation of a shot peening process carried out on a metal part through impacting a surface of the metal part with pellets of metal or glass to modify mechanical properties of the material comprising: generating image data for one or more portions of the surface of the metal part that has undergone the shot peening process; analyzing, by executing an instruction with a processor, said image data; determining, by executing an instruction with the processor, an impact coverage value for the one or more portions of the surface based on the image data; determining, by executing an instruction with the processor, an effectiveness of the shot peening process based on the impact coverage value through comparing the impact coverage value to one or more predefined thresholds based on a shape or size of the pellets used to impact the surface of the metal part and/or an expected depth of penetration of the pellets on the surface ; and merging, through an image stitcher , different image data generated for different portions of the surface and generating merged image data . generating image data for one or more portions of the surface of the metal part that has undergone the shot peening process; analyzing, by executing an instruction with a processor, said image data; determining, by executing an instruction with the processor, an impact coverage value for the one or more portions of the surface based on the image data; determining, by executing an instruction with the processor, an effectiveness of the shot peening process based on the impact coverage value through comparing the impact coverage value to one or more predefined thresholds based on a shape or size of the pellets used to impact the surface of the metal part and/or an expected depth of penetration of the pellets on the surface ; and merging, through an image stitcher , different image data generated for different portions of the surface and generating merged image data .
Use of a heat transfer composition in a low temperature refrigeration system comprising a compressor, a condenser and an evaporator in fluid communication, wherein said condenser has an operating temperature of from about 35°C to about 45°C, and said evaporator has an evaporator temperature of from about -25°C to about -35°C, and wherein said heat transfer composition comprises: (a) from about 10% to about 35% by weight of HFC-32; (b) from about 10% to about 35% by weight of HFC-125; (c) from about 20% to about 50% by weight of HFO-1234ze, HFO-1234yf and combinations of these; (d) from about 15% to about 35% by weight of HFC-134a; and (e) up to about 10% by weight of CF 3 I and up to about 5% by weight of HFCO-1233ze, with the weight percent being based on the total of the components (a) - (e) in the composition; provided that (e) is not present in the heat transfer composition. wherein said heat transfer composition comprises: (a) from about 10% to about 35% by weight of HFC-32; (b) from about 10% to about 35% by weight of HFC-125; (c) from about 20% to about 50% by weight of HFO-1234ze, HFO-1234yf and combinations of these; (d) from about 15% to about 35% by weight of HFC-134a; and (e) up to about 10% by weight of CF 3 I and up to about 5% by weight of HFCO-1233ze, with the weight percent being based on the total of the components (a) - (e) in the composition; provided that (e) is not present in the heat transfer composition.
A vehicle cab suspension comprising: a body connected in use to one of a vehicle frame or a vehicle cab, the body comprising a first body piece connected to a second body piece defining an open interior; a mounting member connected in use to the other of the vehicle frame or the vehicle cab, the mounting member being positioned at least partially within the body ; at least one resilient member connecting the body to the mounting member ; and at least one spacer plate extending between the first body piece and the second body piece and receiving at least one fastener or cooperating with at least one connection means that connects the first body piece and second body piece together, whereby the resilient member is placed in a compressed condition between the body and the mounting member when the vehicle cab suspension is in an unloaded condition. a body connected in use to one of a vehicle frame or a vehicle cab, the body comprising a first body piece connected to a second body piece defining an open interior; a mounting member connected in use to the other of the vehicle frame or the vehicle cab, the mounting member being positioned at least partially within the body ; at least one resilient member connecting the body to the mounting member ; and at least one spacer plate extending between the first body piece and the second body piece and receiving at least one fastener or cooperating with at least one connection means that connects the first body piece and second body piece together, whereby the resilient member is placed in a compressed condition between the body and the mounting member when the vehicle cab suspension is in an unloaded condition.
Method for cryopreservation of eggs, nauplii and/or juveniles of barnacles, the method comprising the steps performed in the following order: - draining of water from the organisms, - adding of a 5 to 8 M cryoprotectant solution comprising a cryoprotectant selected from the group consisting of ethylene glycol, propylene glycol, glycerol, and dimethyl sulfoxide or a mixture thereof, - freezing the mixture in a container according to the following subsequent steps: (i) freezing at a first slow freezing rate of no more than -1 °C min -1 until approaching the temperature where the organisms in the mixture start to crystallize; (ii) freezing at a second slow freezing rate of no more than -0.1 °C min -1 until the organisms and the cryoprotectant in the mixture are entirely crystallized; and (iii) a first rapid freezing rate to a cryogenic storage temperature. - draining of water from the organisms, - adding of a 5 to 8 M cryoprotectant solution comprising a cryoprotectant selected from the group consisting of ethylene glycol, propylene glycol, glycerol, and dimethyl sulfoxide or a mixture thereof, - freezing the mixture in a container according to the following subsequent steps: (i) freezing at a first slow freezing rate of no more than -1 °C min -1 until approaching the temperature where the organisms in the mixture start to crystallize; (ii) freezing at a second slow freezing rate of no more than -0.1 °C min -1 until the organisms and the cryoprotectant in the mixture are entirely crystallized; and (iii) a first rapid freezing rate to a cryogenic storage temperature. (i) freezing at a first slow freezing rate of no more than -1 °C min -1 until approaching the temperature where the organisms in the mixture start to crystallize; (ii) freezing at a second slow freezing rate of no more than -0.1 °C min -1 until the organisms and the cryoprotectant in the mixture are entirely crystallized; and (iii) a first rapid freezing rate to a cryogenic storage temperature.
A method of determining a data signal imposed on a phase jitter modulation signal, the method comprising the steps of: providing a first phase jitter modulated signal ; applying a delay of less than half of a bit period to the first signal, and obtaining a second phase jitter modulated signal ; comparing the first and second phase jitter modulated signals to determine the phase difference between the first and second phase jitter modulated signals; and reconstructing a data signal based on the phase difference. providing a first phase jitter modulated signal ; applying a delay of less than half of a bit period to the first signal, and obtaining a second phase jitter modulated signal ; comparing the first and second phase jitter modulated signals to determine the phase difference between the first and second phase jitter modulated signals; and reconstructing a data signal based on the phase difference.
Arrangement comprising an electric machine , a gearbox , a shaft coupling the electric machine with the gearbox and having an axial blind bore , a coolant insertion element configured to supply a coolant into the bore and a coolant conduction element being arranged such that the shaft rotates around it and defining a flow path for the inserted coolant, characterized in that the bore extends from a machine-side end of the shaft into the gearbox and that the coolant conduction element extends inside the bore from the machine-side end into the gearbox .
An accessory device detachably mountable to an imaging apparatus , comprising: an accessory communication unit that provides, between the accessory device and the imaging apparatus , a notification channel used for notification from the imaging apparatus to the accessory device , an accessory data communication channel used for data transmission from the accessory device to the imaging apparatus , and an imaging apparatus data communication channel used for data transmission from the imaging apparatus to the accessory device ; and an accessory control unit configured to control the accessory communication unit , wherein the accessory control unit transmits a first data to the imaging apparatus via the accessory data communication channel, in response to receiving, via the notification channel, a transmission request signal requesting transmission of data from the accessory device to the imaging apparatus , and receives, via the imaging apparatus data communication channel, a second data transmitted from the imaging apparatus in response to the imaging apparatus starts receiving of the first data. an accessory communication unit that provides, between the accessory device and the imaging apparatus , a notification channel used for notification from the imaging apparatus to the accessory device , an accessory data communication channel used for data transmission from the accessory device to the imaging apparatus , and an imaging apparatus data communication channel used for data transmission from the imaging apparatus to the accessory device ; and an accessory control unit configured to control the accessory communication unit , wherein the accessory control unit transmits a first data to the imaging apparatus via the accessory data communication channel, in response to receiving, via the notification channel, a transmission request signal requesting transmission of data from the accessory device to the imaging apparatus , and receives, via the imaging apparatus data communication channel, a second data transmitted from the imaging apparatus in response to the imaging apparatus starts receiving of the first data.
An interference prevention device for a construction machine including a work device including a plurality of movable parts and having a changeable posture, a cab , and a main body on which the work device and the cab are mounted, the interference prevention device comprising: a distance sensor configured to acquire distance image data indicating distance distribution in a surrounding environment of the cab ; an interference determination unit configured to detect an interference object that is the work device or a grasped object of the work device by using the distance image data acquired and measured by the distance sensor , and determine danger of interference of the detected interference object in the cab ; an interference prevention unit configured to perform at least one of a warning to an occupant and operation restriction of the construction machine when the interference determination unit determines that there is the danger of interference; an acquisition unit configured to acquire posture information indicating a posture of the work device ; and a region removing unit configured to determine pixel data corresponding to a specified movable part that does not interfere in the cab among the plurality of movable parts in the distance image data by using the posture information acquired by the acquisition unit , and remove the determined pixel data from the distance image data, wherein the interference determination unit determines the danger of interference by using the distance image data from which the pixel data corresponding to the specified movable part has been removed. a distance sensor configured to acquire distance image data indicating distance distribution in a surrounding environment of the cab ; an interference determination unit configured to detect an interference object that is the work device or a grasped object of the work device by using the distance image data acquired and measured by the distance sensor , and determine danger of interference of the detected interference object in the cab ; an interference prevention unit configured to perform at least one of a warning to an occupant and operation restriction of the construction machine when the interference determination unit determines that there is the danger of interference; an acquisition unit configured to acquire posture information indicating a posture of the work device ; and a region removing unit configured to determine pixel data corresponding to a specified movable part that does not interfere in the cab among the plurality of movable parts in the distance image data by using the posture information acquired by the acquisition unit , and remove the determined pixel data from the distance image data, wherein the interference determination unit determines the danger of interference by using the distance image data from which the pixel data corresponding to the specified movable part has been removed.
A method of operating an apparatus , comprising: storing data within a memory of the apparatus, wherein the memory comprises a first portion and a second portion of a same type of memory; copying a first portion of the data stored in the first portion of the memory into the second portion of the memory so that the data is stored in the second portion of the memory; and turning off the first portion of the memory; and further comprising detecting a triggering event for a partial area self refresh, PASR, memory mode wherein the first portion of the data is copied into the second portion of the memory in response to the triggering event; wherein detecting the triggering event comprises: providing the apparatus in a low power mode; determining that the apparatus has been in the low power mode for a predetermined time duration; or wherein detecting the triggering event comprises: obtaining location data that identifies a location of the apparatus; determining that the location data indicates that the apparatus is located at a particular type of locale. storing data within a memory of the apparatus, wherein the memory comprises a first portion and a second portion of a same type of memory; copying a first portion of the data stored in the first portion of the memory into the second portion of the memory so that the data is stored in the second portion of the memory; and turning off the first portion of the memory; and further comprising detecting a triggering event for a partial area self refresh, PASR, memory mode wherein the first portion of the data is copied into the second portion of the memory in response to the triggering event; wherein detecting the triggering event comprises: providing the apparatus in a low power mode; determining that the apparatus has been in the low power mode for a predetermined time duration; or wherein detecting the triggering event comprises: obtaining location data that identifies a location of the apparatus; determining that the location data indicates that the apparatus is located at a particular type of locale. providing the apparatus in a low power mode; determining that the apparatus has been in the low power mode for a predetermined time duration; or wherein detecting the triggering event comprises: obtaining location data that identifies a location of the apparatus; determining that the location data indicates that the apparatus is located at a particular type of locale. obtaining location data that identifies a location of the apparatus; determining that the location data indicates that the apparatus is located at a particular type of locale.