mhurhangee/patent-ind-claim-en huggingface dataset:
Non-therapeutic use of a compound expressed by the following Formula , or an acid addition salt thereof, for wrinkle improvement: wherein X represents an alkylene group having 1 to 2 carbon atoms in which a hydrogen atom may be substituted with a methyl group, Y represents COOR 1 or CH 2 OR 2 , R 1 represents a hydrogen atom, or an optionally branched alkyl group having 1 to 6 carbon atoms, and R 2 represents a hydrogen atom, or an optionally branched acyl group having 1 to 6 carbon atoms.
Composition comprising, in a physiologically acceptable aqueous medium: - at least one molecule chosen from an Annelid extracellular hemoglobin, its globins and its globin protomers; - at least one hydrophilic thickening polymer chosen from xanthan gum and xanthan derivatives; and - hyaluronic acid or one of its salts. - at least one molecule chosen from an Annelid extracellular hemoglobin, its globins and its globin protomers; - at least one hydrophilic thickening polymer chosen from xanthan gum and xanthan derivatives; and - hyaluronic acid or one of its salts.
A method of managing vehicle emissions performed by a central control unit comprising: receiving at least one measurement relating to a vehicle , including a thermal measurement indicative of emissions from the vehicle , wherein the thermal measurement comprises a thermal image indicative of the vehicle's operating mode detected by at least one thermal imaging device; detecting an identity of the vehicle ; from the detected identity, using a database providing information on vehicles types and operating modes, determining one or more operating modes available to the vehicle , different operating modes having different thermal signatures; deriving a thermal signature from the thermal image; and inferring, from the thermal signature, a said operating mode in use by the vehicle ; characterised in that : the operating modes are alternative drive modes including a zero-emission mode, and the thermal image indicative of the operating mode is a thermal image of one or more portions of the vehicle . receiving at least one measurement relating to a vehicle , including a thermal measurement indicative of emissions from the vehicle , wherein the thermal measurement comprises a thermal image indicative of the vehicle's operating mode detected by at least one thermal imaging device; detecting an identity of the vehicle ; from the detected identity, using a database providing information on vehicles types and operating modes, determining one or more operating modes available to the vehicle , different operating modes having different thermal signatures; deriving a thermal signature from the thermal image; and inferring, from the thermal signature, a said operating mode in use by the vehicle ; characterised in that : the operating modes are alternative drive modes including a zero-emission mode, and the thermal image indicative of the operating mode is a thermal image of one or more portions of the vehicle .
A method for controlling cooling of a traction battery in an electric vehicle, the method comprising, in a battery cooling control unit: determining a battery temperature profile for a segment of a planned route based on route information describing a route from a starting point to a destination and based on a current battery status; and determining a battery cooling profile for the segment of the planned route based on the battery temperature profile, wherein determining a battery cooling profile comprises: detecting a cooling region in the battery temperature profile where the battery temperature is decreasing without actively cooling the battery; and determining the battery cooling profile so that the battery temperature is at a predetermined temperature value when reaching the cooling region. determining a battery temperature profile for a segment of a planned route based on route information describing a route from a starting point to a destination and based on a current battery status; and determining a battery cooling profile for the segment of the planned route based on the battery temperature profile, wherein determining a battery cooling profile comprises: detecting a cooling region in the battery temperature profile where the battery temperature is decreasing without actively cooling the battery; and determining the battery cooling profile so that the battery temperature is at a predetermined temperature value when reaching the cooling region. detecting a cooling region in the battery temperature profile where the battery temperature is decreasing without actively cooling the battery; and determining the battery cooling profile so that the battery temperature is at a predetermined temperature value when reaching the cooling region.
A machining process for manufacturing titanium motor housing, wherein the said machining process includes the following steps: S1: Use stamping equipment to stamp, by using a press forming process, the base of the titanium motor housing, apply lubricant on the surface of the die before stamping, and attach a lubricating film on the surface of metal titanium to be stamped; S2: Use stamping equipment to stamp, by using a press forming process, the barrel-shaped titanium motor housing, apply lubricant on the surface of the die before stamping, and attach a lubricating film on the surface of metal titanium to be stamped, wherein, after stamping, a barrel-shaped housing with a barrel depth to port diameter ratio of 1.2∼1.8:1 is obtained; S3: Spray and cleanse the housing base obtained from stamping in Step S1 and the barrel-shaped motor housing obtained from stamping in Step S2; S4: Assemble the housing base and the barrel-shaped housing obtained in Step S3 to form the motor housing product; S5: Inspect the assembled motor housing obtained in Step S4, wherein the lubricant in said Steps S1 and S2 is cutting oil and calcium hydroxide (Ca(OH) 2 ) mixed into the cutting oil, and the lubricating film is oxalic acid. S1: Use stamping equipment to stamp, by using a press forming process, the base of the titanium motor housing, apply lubricant on the surface of the die before stamping, and attach a lubricating film on the surface of metal titanium to be stamped; S2: Use stamping equipment to stamp, by using a press forming process, the barrel-shaped titanium motor housing, apply lubricant on the surface of the die before stamping, and attach a lubricating film on the surface of metal titanium to be stamped, wherein, after stamping, a barrel-shaped housing with a barrel depth to port diameter ratio of 1.2∼1.8:1 is obtained; S3: Spray and cleanse the housing base obtained from stamping in Step S1 and the barrel-shaped motor housing obtained from stamping in Step S2; S4: Assemble the housing base and the barrel-shaped housing obtained in Step S3 to form the motor housing product; S5: Inspect the assembled motor housing obtained in Step S4,
A fiber spinning process comprising: providing a polymer solution, which comprises at least one polymer dissolved in at least one solvent with a vapor pressure of at least 6 kPa at 25°C, to a spinneret; issuing the polymer solution in combination with a blowing gas in a direction away from at least one spinning nozzle in the spinneret and in the presence of an electric field wherein the polymer solution is discharged through the spinning nozzle at a discharge rate between 20 to 100 ml/min/hole; forming fibers; and collecting the fibers on a collector. providing a polymer solution, which comprises at least one polymer dissolved in at least one solvent with a vapor pressure of at least 6 kPa at 25°C, to a spinneret; issuing the polymer solution in combination with a blowing gas in a direction away from at least one spinning nozzle in the spinneret and in the presence of an electric field wherein the polymer solution is discharged through the spinning nozzle at a discharge rate between 20 to 100 ml/min/hole; forming fibers; and collecting the fibers on a collector.
A method for indicating per-packet quality of service, QoS in vehicle-to-everything, V2X, communications by a wireless communications device, comprising: obtaining , at the wireless communications device, a packet generated for a first radio access technology, RAT from an application executing via a processor of the wireless communication device wherein the packet includes a first QoS value associated with the first RAT and wherein the packet is intended for sidelink communication to one or more other devices, wherein the first RAT is long term evolution, LTE; determining to transmit the packet to the one or more other devices over a sidelink channel and using a second RAT, wherein the second RAT is a NR RAT, wherein determining to transmit the packet using the second RAT is based at least in part on at least one of an identifier related to the application, a stored policy for broadcasting packets, a current load of the first RAT or the second RAT, or a transmit power requirement; mapping , based on determining to transmit the packet using the second RAT, the first QoS value to a second QoS value, the second QoS value associated with the second RAT, and wherein the first QoS value is ProSe Per Packet Priority PPPP, and the second QoS value is 5G QoS identifier, 5Q1; indicating the second QoS value in the packet, wherein indicating comprises modifying the QoS value indicated in the packet from a format of the first QoS value to a different format of the second QoS value; and transmitting , using the second RAT, the packet with the second QoS value from the wireless communications device to the one or more other devices over the sidelink channel. obtaining , at the wireless communications device, a packet generated for a first radio access technology, RAT from an application executing via a processor of the wireless communication device wherein the packet includes a first QoS value associated with the first RAT and wherein the packet is intended for sidelink communication to one or more other devices, wherein the first RAT is long term evolution, LTE; determining to transmit the packet to the one or more other devices over a sidelink channel and using a second RAT, wherein the second RAT is a NR RAT, wherein determining to transmit the packet using the second RAT is based at least in part on at least one of an identifier related to the application, a stored policy for broadcasting packets, a current load of the first RAT or the second RAT, or a transmit power requirement; mapping , based on determining to transmit the packet using the second RAT, the first QoS value to a second QoS value, the second QoS value associated with the second RAT, and wherein the first QoS value is ProSe Per Packet Priority PPPP, and the second QoS value is 5G QoS identifier, 5Q1; indicating the second QoS value in the packet, wherein indicating comprises modifying the QoS value indicated in the packet from a format of the first QoS value to a different format of the second QoS value; and transmitting , using the second RAT, the packet with the second QoS value from the wireless communications device to the one or more other devices over the sidelink channel.
A method of preparing a plant extract composition, comprising: causing cutin obtained from a cutin containing portion of plant matter that has been at least partially separated from a non-cutin containing portion of the plant matter to be at least partially depolymerized in a first solvent to obtain a first solution comprising a first intermediate extract in the first solvent, the first intermediate extract including a plurality of cutin-derived monomers, oligomers, or combinations thereof; causing the first intermediate extract to be selectively filtered to obtain a second intermediate extract having a higher purity than the first intermediate extract, the second intermediate extract including at least one of the cutin-derived monomers, oligomers, or combinations thereof; and functionalizing the cutin-derived monomers, oligomers, or combinations thereof of the second intermediate extract by esterification to form the plant extract composition. causing cutin obtained from a cutin containing portion of plant matter that has been at least partially separated from a non-cutin containing portion of the plant matter to be at least partially depolymerized in a first solvent to obtain a first solution comprising a first intermediate extract in the first solvent, the first intermediate extract including a plurality of cutin-derived monomers, oligomers, or combinations thereof; causing the first intermediate extract to be selectively filtered to obtain a second intermediate extract having a higher purity than the first intermediate extract, the second intermediate extract including at least one of the cutin-derived monomers, oligomers, or combinations thereof; and functionalizing the cutin-derived monomers, oligomers, or combinations thereof of the second intermediate extract by esterification to form the plant extract composition.
A control device for controlling an energy storage system comprising an energy storage device , a bidirectional AC/DC converter and a grid connection to an electrical power distribution grid , the control device comprising: a processor ; an external memory interface for reading external instructions from an external removable memory device ; a control interface for controlling the energy storage system ; and an internal memory storing internal software instructions that, when executed by the processor , are configured to cause the control device to provide access to the control interface for external instructions , read from the external removable memory device , when the external instructions are executed by the processor ; characterised in that the external instructions are software instructions. a processor ; an external memory interface for reading external instructions from an external removable memory device ; a control interface for controlling the energy storage system ; and an internal memory storing internal software instructions that, when executed by the processor , are configured to cause the control device to provide access to the control interface for external instructions , read from the external removable memory device , when the external instructions are executed by the processor ; characterised in that the external instructions are software instructions.
A light-modulating material comprising a graphene-like carbon material having an aspect ratio of 3 or more and 330 or less, wherein the surface of the graphene-like carbon material is modified with an organic functional group represented by the following Formula 14, wherein R 1 and R 2 each are carbon of the aromatic ring in the graphene-like carbon material, R 3 to R 5 each are carbon of an aromatic ring or a heterocyclic ring in a group having an aromatic ring or a heterocyclic ring, n is 0 or 1, and m is the number of the organic functional groups.
A safety release system of barrier bars for controlling the entrance to restricted access areas, comprising: a first flange comprising a through-hole and a bending spring arranged about said hole so as to narrow the useful diameter thereof with a predetermined resistive force; a second flange connected by means of a hinge to said first flange and comprising a pin provided with a groove which allows said pin to engage said bending spring reversibly, said first flange and said second flange being connectable to an actuation shaft of the bar or to the end of the bar or both, characterized in that said pin is configured to be disengaged from said bending spring if said bar undergoes an impact such as to exceed said predetermined resistive force. a first flange comprising a through-hole and a bending spring arranged about said hole so as to narrow the useful diameter thereof with a predetermined resistive force; a second flange connected by means of a hinge to said first flange and comprising a pin provided with a groove which allows said pin to engage said bending spring reversibly, said first flange and said second flange being connectable to an actuation shaft of the bar or to the end of the bar or both, characterized in that said pin is configured to be disengaged from said bending spring if said bar undergoes an impact such as to exceed said predetermined resistive force.
Article having an elastic main body based on at least one thermoplastic elastomer or based on a vulcanizate having an article surface provided with a textile cover ply, characterized in that the textile cover ply is treated with partially oxidized polyethylene.
A IL-8 inhibitor for use in the treatment and/or prevention of interstitial cystitis/painful bladder syndrome (IC/PBS) and/or over active bladder (OAB), which is a CXCR1 inhibitor or a dual CXCR1 and CXCR2 inhibitor having formula (I) or a pharmaceutically acceptable salt thereof, wherein R1 is hydrogen; X is OH; R2 is hydrogen or linear C 1 -C 4 alkyl; Y is a heteroatom selected from S, O and N; Z is selected from linear or branched C 1 -C 4 alkyl, linear or branched C 1 -C 4 alkoxy, halo C 1 -C 3 alkyl and halo C 1 -C 3 alkoxy; or having formula (II) or a pharmaceutically acceptable salt thereof, wherein R' is hydrogen; R is a residue of formula SO 2 Ra wherein Ra is linear or branched C 1 -C 4 alkyl or halo C 1 -C 3 alkyl. R1 is hydrogen; X is OH; R2 is hydrogen or linear C 1 -C 4 alkyl; Y is a heteroatom selected from S, O and N; Z is selected from linear or branched C 1 -C 4 alkyl, linear or branched C 1 -C 4 alkoxy, halo C 1 -C 3 alkyl and halo C 1 -C 3 alkoxy; or having formula (II) R' is hydrogen; R is a residue of formula SO 2 Ra wherein Ra is linear or branched C 1 -C 4 alkyl or halo C 1 -C 3 alkyl.
An electrical circuit for converting electrical power, the electrical circuit comprising: a primary circuit comprising a first quantity of windings ; and a secondary circuit comprising a second quantity of windings and magnetically coupled to the primary circuit, wherein the primary circuit includes a first quantity of terminals (P1, P2, PN-K, PN), each (P1, P2, PN) being electrically coupled to a corresponding one of the first quantity of windings of the primary circuit via a primary blocking capacitor , except that one of the terminals (PN-K) of the primary circuit is electrically coupled directly to the corresponding one of the first quantity of the windings of the primary circuit without a primary blocking capacitor , wherein the first quantity of windings of the primary circuit are connected with each other in a Y-connection configuration or a Δ-connection configuration, wherein the secondary circuit includes a second quantity of terminals (S1, S2, SM-I, SM), each (S1, S2, SM) being electrically coupled to a corresponding one of the second quantity of windings of the secondary circuit via a secondary blocking capacitor , except that one of the terminals (SM-I) of the secondary circuit is electrically coupled directly to the corresponding one of the second quantity of windings of the secondary circuit without a secondary blocking capacitor , wherein the second quantity of windings of the secondary circuit are connected with each other in a Y-connection configuration or a Δ-connection configuration, wherein the first quantity is at least three, and the second quantity is at least three. a primary circuit comprising a first quantity of windings ; and a secondary circuit comprising a second quantity of windings and magnetically coupled to the primary circuit, wherein the primary circuit includes a first quantity of terminals (P1, P2, PN-K, PN), each (P1, P2, PN) being electrically coupled to a corresponding one of the first quantity of windings of the primary circuit via a primary blocking capacitor , except that one of the terminals (PN-K) of the primary circuit is electrically coupled directly to the corresponding one of the first quantity of the windings of the primary circuit without a primary blocking capacitor , wherein the first quantity of windings of the primary circuit are connected with each other in a Y-connection configuration or a Δ-connection configuration, wherein the secondary circuit includes a second quantity of terminals (S1, S2, SM-I, SM), each (S1, S2, SM) being electrically coupled to a corresponding one of the second quantity of windings of the secondary circuit via a secondary blocking capacitor , except that one of the terminals (SM-I) of the secondary circuit is electrically coupled directly to the corresponding one of the second quantity of windings of the secondary circuit without a secondary blocking capacitor , wherein the second quantity of windings of the secondary circuit are connected with each other in a Y-connection configuration or a Δ-connection configuration, wherein the first quantity is at least three, and the second quantity is at least three.
An automated method of blending biodiesel into a distillate stream to achieve a target biodiesel content comprising: a) providing a distillate stream having a distillate stream flow rate; b) providing a supply of biodiesel having a biodiesel stream flow rate in liquid communication with said distillate stream, separated from said distillate stream by a regulating valve that is under the control of a central processing unit ; c) providing a target biodiesel content for said distillate stream; d) periodically measuring an actual biodiesel content in said distillate stream, either upstream or downstream of said supply of biodiesel; e) periodically transmitting said actual biodiesel content to said central processing unit; f) periodically calculating in said central processing unit a target blending rate at which biodiesel can be blended into said distillate stream to achieve the target biodiesel content; and g) modulating said regulating valve to blend biodiesel into said distillate stream at said target blending rate; characterized in that said distillate stream comprises a batch of distillate fuel preceded and succeeded by batches of non-distillate fuel, further comprising monitoring said distillate stream for the identity of said batch at said valve, and only blending biodiesel into said distillate stream when said batch of distillate fuel is passing by said valve. a) providing a distillate stream having a distillate stream flow rate; b) providing a supply of biodiesel having a biodiesel stream flow rate in liquid communication with said distillate stream, separated from said distillate stream by a regulating valve that is under the control of a central processing unit ; c) providing a target biodiesel content for said distillate stream; d) periodically measuring an actual biodiesel content in said distillate stream, either upstream or downstream of said supply of biodiesel; e) periodically transmitting said actual biodiesel content to said central processing unit; f) periodically calculating in said central processing unit a target blending rate at which biodiesel can be blended into said distillate stream to achieve the target biodiesel content; and g) modulating said regulating valve to blend biodiesel into said distillate stream at said target blending rate;