mhurhangee/patent-ind-claim-en huggingface dataset:
An air-cooled absorption machine using water as coolant, an aqueous solution of lithium bromide as absorbent, and fluid that supplies the primary energy, the machine having a hollow configuration of vertical development including: - at least one generator , - at least one condenser , - at least one evaporator , - at least one absorber , - at least one solution heat exchanger , - at least one solution storage tank and at least one coolant storage tank , - at least one mechanical or thermal solution pump , and - at least one fan , wherein said hollow configuration houses the absorbers and the condensers ; and wherein - the fan is located on the top of the machine, on an upper side of the hollow configuration, propelling the air in a forced convection circulation through said hollow configuration; - said at least one generator is located in the upper part of the machine, above the absorber ; - said absorber is located under the generator and above the solution pump , - the evaporator is located at the bottom of the machine; wherein the machine presents a single effect cycle configuration working with hot water as the energy source, characterized in that : - said absorber is an air-cooled array of finned tube exchanger wherein the aqueous solution of lithium bromide circulates absorbing water vapour in the shape of a vertically descending liquid film by means of a descending film former installed in the upper part of the tubes ; and - the evaporator is of the flooded type. - at least one generator , - at least one condenser , - at least one evaporator , - at least one absorber , - at least one solution heat exchanger , - at least one solution storage tank and at least one coolant storage tank , - at least one mechanical or thermal solution pump , and - at least one fan , - the fan is located on the top of the machine, on an upper side of the hollow configuration, propelling the air in a forced convection circulation through said hollow configuration; - said at least one generator is located in the upper part of the machine, above the absorber ; - said absorber is located under the generator and above the solution pump , - the evaporator is located at the bottom of the machine; - said absorber is an air-cooled array of finned tube exchanger wherein the aqueous solution of lithium bromide circulates absorbing water vapour in the shape of a vertically descending liquid film by means of a descending film former installed in the upper part of the tubes ; and - the evaporator is of the flooded type.
A dental implant , comprising: a screw thread configured to be rotationally screwed into a jaw bone, a prosthesis support attached to an upper edge of the screw thread , and a penetrating element configured to linearly penetrate into a jaw bone, wherein said penetrating element is attached to a lower edge of said screw thread and comprises a sharp smooth tip , and wherein the screw thread is positioned between the penetrating element and the prosthesis support , wherein the implant is a drill-less implant for implantation directly in a jaw bone while compressing a jaw bone tissue that surrounds a site of the implantation, thus increasing forces that are exerted by the compressed jaw bone tissue towards the drill-less dental implant , and thus increasing a stability of the drill-less implant in the jaw bone, characterized in that the penetrating element comprises an elongated smooth cylinder positioned between the sharp smooth tip and the screw thread . a screw thread configured to be rotationally screwed into a jaw bone, a prosthesis support attached to an upper edge of the screw thread , and a penetrating element configured to linearly penetrate into a jaw bone, wherein said penetrating element is attached to a lower edge of said screw thread and comprises a sharp smooth tip , and wherein the screw thread is positioned between the penetrating element and the prosthesis support , wherein the implant is a drill-less implant for implantation directly in a jaw bone while compressing a jaw bone tissue that surrounds a site of the implantation, thus increasing forces that are exerted by the compressed jaw bone tissue towards the drill-less dental implant , and thus increasing a stability of the drill-less implant in the jaw bone, characterized in that the penetrating element comprises an elongated smooth cylinder positioned between the sharp smooth tip and the screw thread .
A method of calibrating a liquid dispensing apparatus by adjusting a volume of a droplet of liquid dispensed therefrom, the method comprising: (a) depositing an assumed volume of liquid to be measured from the liquid dispensing apparatus as a drop onto a calibrating reference surface , wherein the calibrating reference surface provides for a known contact angle with the drop of liquid under the deposition conditions used; (b) establishing a known contact angle with the drop of liquid selected from the group consisting of: (i) an advancing contact angle, (ii) a receding contact angle, and (iii) an intermediate contact angle; (c) measuring a dimension of the drop of liquid , wherein the dimension measured is selected from the group consisting of (i) a maximum height of the drop , (ii) a diameter of the contact patch, (iii) radius of curvature, and (iv) cross sectional area; and (d) calculating the actual volume of the drop of liquid from the relationship of the known contact angle to the measured dimension; (e) determining the difference between the assumed volume and the calculated actual volume of the drop of liquid ; (f) adjusting the volume of actual liquid dispensed by the liquid dispensing apparatus to correct for said difference by adjusting the time interval during which one or more valves is opened, the degree of opening of one or more valves and/or the pressure provided by the liquid dispensing apparatus to the dispensing liquid . (a) depositing an assumed volume of liquid to be measured from the liquid dispensing apparatus as a drop onto a calibrating reference surface , wherein the calibrating reference surface provides for a known contact angle with the drop of liquid under the deposition conditions used; (b) establishing a known contact angle with the drop of liquid selected from the group consisting of: (i) an advancing contact angle, (ii) a receding contact angle, and (iii) an intermediate contact angle; (c) measuring a dimension of the drop of liquid , wherein the dimension measured is selected from the group consisting of (i) a maximum height of the drop , (ii) a diameter of the contact patch, (iii) radius of curvature, and (iv) cross sectional area; and (d) calculating the actual volume of the drop of liquid from the relationship of the known contact angle to the measured dimension; (e) determining the difference between the assumed volume and the calculated actual volume of the drop of liquid ; (f) adjusting the volume of actual liquid dispensed by the liquid dispensing apparatus to correct for said difference by adjusting the time interval during which one or more valves is opened, the degree of opening of one or more valves and/or the pressure provided by the liquid dispensing apparatus to the dispensing liquid .
A method of making a polycrystalline diamond body, comprising: positioning a first quantity of diamond grains having a first particle size distribution in a low-reactivity cup having a perimeter wall; distributing the first quantity of diamond grains into an annular configuration in which the annular region decreases in thickness from the perimeter wall towards a centerline axis of the low-reactivity cup; positioning a second quantity of diamond grains having a second particle size distribution that differs from the first particle size distribution in the low-reactivity cup, the second quantity of diamond grains be positioned to at least partially contact the perimeter wall of the low-reactivity cup and to at least partially contact the first quantity of diamond grains; and subjecting the low-reactivity cup, the first quantity of diamond grains, and the second quantity of diamond grains to a HPHT process in which adjacent diamond grains are sintered to one another and form diamond-to-diamond bonds; characterized by : mixing a non-catalyst material into the second quantity of diamond grains; and during the HPHT process, melting the non-catalyst material so as to sweep the non-catalyst material from the second quantity of diamond grains into the first quantity of diamond grains. positioning a first quantity of diamond grains having a first particle size distribution in a low-reactivity cup having a perimeter wall; distributing the first quantity of diamond grains into an annular configuration in which the annular region decreases in thickness from the perimeter wall towards a centerline axis of the low-reactivity cup; positioning a second quantity of diamond grains having a second particle size distribution that differs from the first particle size distribution in the low-reactivity cup, the second quantity of diamond grains be positioned to at least partially contact the perimeter wall of the low-reactivity cup and to at least partially contact the first quantity of diamond grains; and subjecting the low-reactivity cup, the first quantity of diamond grains, and the second quantity of diamond grains to a HPHT process in which adjacent diamond grains are sintered to one another and form diamond-to-diamond bonds; characterized by : mixing a non-catalyst material into the second quantity of diamond grains; and during the HPHT process, melting the non-catalyst material so as to sweep the non-catalyst material from the second quantity of diamond grains into the first quantity of diamond grains. mixing a non-catalyst material into the second quantity of diamond grains; and during the HPHT process, melting the non-catalyst material so as to sweep the non-catalyst material from the second quantity of diamond grains into the first quantity of diamond grains.
A memory expansion device operable in a computer system, the computer system including a host computer (host) and a dedicated bus , the memory expansion device comprising: interface circuitry configured to communicate with the host via the dedicated bus based on a predefined protocol; a non-volatile memory (NVM) subsystem ; cache memory (127/327B); and control logic coupled to the interface circuitry , the cache memory (127/327B), and the NVM subsystem , wherein the control logic is configurable to: receive a first submission from the host , the first submission including a first read command and specifying a first payload in the NVM subsystem ; and in response to the first submission being of first priority, request ownership of first cache lines corresponding to the first payload, indicate completion of the first submission after acquiring ownership of the first cache lines, and load the first payload to the cache memory (127/327B), the first cache lines corresponding to cache lines in a first coherent destination memory space accessible by the host . interface circuitry configured to communicate with the host via the dedicated bus based on a predefined protocol; a non-volatile memory (NVM) subsystem ; cache memory (127/327B); and control logic coupled to the interface circuitry , the cache memory (127/327B), and the NVM subsystem , wherein the control logic is configurable to: receive a first submission from the host , the first submission including a first read command and specifying a first payload in the NVM subsystem ; and in response to the first submission being of first priority, request ownership of first cache lines corresponding to the first payload, indicate completion of the first submission after acquiring ownership of the first cache lines, and load the first payload to the cache memory (127/327B), the first cache lines corresponding to cache lines in a first coherent destination memory space accessible by the host . receive a first submission from the host , the first submission including a first read command and specifying a first payload in the NVM subsystem ; and in response to the first submission being of first priority, request ownership of first cache lines corresponding to the first payload, indicate completion of the first submission after acquiring ownership of the first cache lines, and load the first payload to the cache memory (127/327B), the first cache lines corresponding to cache lines in a first coherent destination memory space accessible by the host .
Control method for a system comprising a frequency converter connected to a power grid, the method comprising at least the steps of obtaining the sub-synchronous components (V xs , V ys ) of the grid voltage based on detections of said grid voltage , and determining damping current set points according to said sub-synchronous components (V xs , V ys ) to compensate for the sub-synchronous resonances of the grid, the damping current set points being determined by regulation means receiving the sub-synchronous components (V xs , V ys ) of the grid voltage and returning damping current set points as outputs, said regulation means comprising at least one regulator with at least one variable damping gain , characterized in that the variable damping gain is dynamically adjusted based on at least one electric variable of the system reflecting the sub-synchronous frequency of the power grid to which the system is connected, such that the required compensation level can be adapted to the frequency converter for damping sub-synchronous resonance of the grid, said electric variable being selected from the sub-synchronous components (V xs , V ys ) of the grid voltage , the zero-sequence current at a point of the system where it is possible to determine the zero-sequence current, and the bus voltage (V BUS ) of the frequency converter , and at least the module of said electric variable being determined to adjust the damping gain , the damping gain being calculated based on said module by means of a regulator receiving said module as input and returning the damping gain .
An automated method to obtain a radiopharmaceutial composition of 18 F-1-amino-3-fluoro-cyclobutane-1-carboxylic acid ( 18 F-FACBC) wherein said composition; (a) comprises 50-100 mM citrate buffer; and, (b) has a pH of 4.0 - 5.0; wherein said method comprises: (i) reacting with a suitable source of [ 18 F]fluoride a precursor compound of Formula I: wherein: LG is a leaving group; PG 1 is a carboxy protecting group; and, PG 2 is an amine protecting group; to obtain a compound of Formula II: wherein PG 1 and PG 2 are as defined for Formula I; (ii) reacting said compound of Formula II with a PG 1 deprotecting agent to obtain a compound of Formula III: wherein PG 2 is as defined for Formula I; (iii) reacting said compound of Formula III with a PG 2 deprotecting agent to obtain a crude product containing 18 F-FACBC; (iv) carrying out a purification step comprising passing said crude product through a hydrophilic lipophilic balanced (HLB) solid phase to obtain [ 18 F]-FACBC, wherein said crude product is not passed through an ion retardation column; and (v) formulating said [ 18 F]-FACBC with citrate buffer to obtain said pharmaceutical composition. (a) comprises 50-100 mM citrate buffer; and, (b) has a pH of 4.0 - 5.0; wherein said method comprises: (i) reacting with a suitable source of [ 18 F]fluoride a precursor compound of Formula I: wherein: LG is a leaving group; PG 1 is a carboxy protecting group; and, PG 2 is an amine protecting group; to obtain a compound of Formula II: wherein PG 1 and PG 2 are as defined for Formula I; (ii) reacting said compound of Formula II with a PG 1 deprotecting agent to obtain a compound of Formula III: wherein PG 2 is as defined for Formula I; (iii) reacting said compound of Formula III with a PG 2 deprotecting agent to obtain a crude product containing 18 F-FACBC; (iv) carrying out a purification step comprising passing said crude product through a hydrophilic lipophilic balanced (HLB) solid phase to obtain [ 18 F]-FACBC, wherein said crude product is not passed through an ion retardation column; and (v) formulating said [ 18 F]-FACBC with citrate buffer to obtain said pharmaceutical composition. (i) reacting with a suitable source of [ 18 F]fluoride a precursor compound of Formula I: wherein: LG is a leaving group; PG 1 is a carboxy protecting group; and, PG 2 is an amine protecting group; to obtain a compound of Formula II: wherein PG 1 and PG 2 are as defined for Formula I; LG is a leaving group; PG 1 is a carboxy protecting group; and, PG 2 is an amine protecting group; (ii) reacting said compound of Formula II with a PG 1 deprotecting agent to obtain a compound of Formula III: wherein PG 2 is as defined for Formula I; (iii) reacting said compound of Formula III with a PG 2 deprotecting agent to obtain a crude product containing 18 F-FACBC; (iv) carrying out a purification step comprising passing said crude product through a hydrophilic lipophilic balanced (HLB) solid phase to obtain [ 18 F]-FACBC, wherein said crude product is not passed through an ion retardation column; and (v) formulating said [ 18 F]-FACBC with citrate buffer to obtain said pharmaceutical composition.
A power transmission device for a vehicle comprising: a motor housing and a gear casing (3a;23a;33a); a motor housed in the motor housing and including a rotor shaft and a stator having an electromagnetic coil ; an inverter configured to generate an alternating current, the inverter being connected with the coil to controllably rotate the rotor shaft relative to the stator ; a gear set (3;23;33) carried by the gear casing (3a;23a;33a) and including an input shaft (3b;23b) coupled with and rotated by the rotor shaft , an output shaft (3d;23e) and gears (3e,3f,3g,3h; 23e,23f,23g,23h,23i,23j,23k; 33e,33f,33g,33h,33i) so meshed as to transmit torque of the input shaft (3b;23b) to the output shaft (3d;23e); and a grounding path electrically connecting a connection point (CP) on the gear set (3;23;33) with a body of the vehicle, the connection point (CP) being so disposed as to have the input shaft (3b;23b) electrically interposed between the connection point (CP) and the rotor shaft to increase an electric resistance there between. a motor housing and a gear casing (3a;23a;33a); a motor housed in the motor housing and including a rotor shaft and a stator having an electromagnetic coil ; an inverter configured to generate an alternating current, the inverter being connected with the coil to controllably rotate the rotor shaft relative to the stator ; a gear set (3;23;33) carried by the gear casing (3a;23a;33a) and including an input shaft (3b;23b) coupled with and rotated by the rotor shaft , an output shaft (3d;23e) and gears (3e,3f,3g,3h; 23e,23f,23g,23h,23i,23j,23k; 33e,33f,33g,33h,33i) so meshed as to transmit torque of the input shaft (3b;23b) to the output shaft (3d;23e); and a grounding path electrically connecting a connection point (CP) on the gear set (3;23;33) with a body of the vehicle, the connection point (CP) being so disposed as to have the input shaft (3b;23b) electrically interposed between the connection point (CP) and the rotor shaft to increase an electric resistance there between.
A method for updating a route in a network, wherein the network comprises a first network device, a second network device, and a third network device, and the third network device is connected to the first network device and the second network device, and the method comprises: setting up (S401), by the first network device, a correspondence between an Internet Protocol IP network segment and a first IP address, wherein the first IP address is an IP address of the first network device; sending (S402), by the first network device, a first LSA packet to the third network device, wherein the first LSA packet comprises a second IP address, the first LSA packet is used to trigger the third network device to generate a first route whose destination address is the second IP address, the second IP address belongs to the IP network segment, and a next-hop IP address of the first route is the first IP address; and sending (S404), by the first network device, a second LSA packet to the third network device when the first network device determines that switching needs to be performed on a next hop of a route that is stored in the third network device, whose destination IP address belongs to the IP network segment, and whose next-hop IP address is the first IP address, wherein the second LSA packet comprises the first IP address, the second LSA packet is used to trigger the third network device to update, from the first IP address to a third IP address, the next-hop IP address of the first route, and the third IP address is an IP address of the second network device. setting up (S401), by the first network device, a correspondence between an Internet Protocol IP network segment and a first IP address, wherein the first IP address is an IP address of the first network device; sending (S402), by the first network device, a first LSA packet to the third network device, wherein the first LSA packet comprises a second IP address, the first LSA packet is used to trigger the third network device to generate a first route whose destination address is the second IP address, the second IP address belongs to the IP network segment, and a next-hop IP address of the first route is the first IP address; and sending (S404), by the first network device, a second LSA packet to the third network device when the first network device determines that switching needs to be performed on a next hop of a route that is stored in the third network device, whose destination IP address belongs to the IP network segment, and whose next-hop IP address is the first IP address, wherein the second LSA packet comprises the first IP address, the second LSA packet is used to trigger the third network device to update, from the first IP address to a third IP address, the next-hop IP address of the first route, and the third IP address is an IP address of the second network device.
Heterocyclic trifluoroalkenyl compounds having formula (I) Het-S(O) n -(CH 2 ) m -CF=CF 2 (I) wherein: - Het represents an aromatic heterocyclic group, substituted, selected from: - X represents a sulfur atom; - n represents 1 or 2; - m represents 1 or 2, wherein the substituents of the heterocycle Het are selected from halogen; a C 1 -C 6 alkyl; a C 1 -C 6 haloalkyl; a C 3 -C 6 cycloalkyl; formyl; optionally substituted aryl; benzyl; an aromatic penta- or hexa-atomic heterocyclic group, optionally benzocondensed or heterobicyclic, containing at least one heteroatom selected from oxygen, sulfur, nitrogen or an optionally substituted N-oxide, preferably selected from oxygen, sulfur or nitrogen. - Het represents an aromatic heterocyclic group, substituted, selected from: - X represents a sulfur atom; - n represents 1 or 2; - m represents 1 or 2,