mhurhangee/patent-ind-claim-en huggingface dataset:
A method of accepting a notification, the method comprising: receiving the notification, the notification containing a message, a counter value, a signature, and an indication of a signer, wherein the indication further comprises an indication counter value and a certificate authority identity; processing the indication to obtain a signer identity corresponding to the signer; obtaining, based on the signer identity, a previously stored current counter value associated with the signer; obtaining, based on the signer identity and the certificate authority identity, a previously stored current indication counter value associated with the signer identity and the certificate authority identity; comparing the counter value with the current counter value and the indication counter value with the current indication counter value; and accepting the received notification based upon the comparison. receiving the notification, the notification containing a message, a counter value, a signature, and an indication of a signer, wherein the indication further comprises an indication counter value and a certificate authority identity; processing the indication to obtain a signer identity corresponding to the signer; obtaining, based on the signer identity, a previously stored current counter value associated with the signer; obtaining, based on the signer identity and the certificate authority identity, a previously stored current indication counter value associated with the signer identity and the certificate authority identity; comparing the counter value with the current counter value and the indication counter value with the current indication counter value; and accepting the received notification based upon the comparison.
A sliding member characterized in that the sliding member comprises: a supporting layer composed of Fe-based first metallic material; and a sliding layer composed of Cu-based second metallic material that is different from the first metallic material, the sliding layer being formed on one surface of the supporting layer, wherein the sliding layer is formed by thermal spraying the second metallic material on the one surface of the supporting layer which is roughed by first impact processing such that powder having a corner part with an acute angle collides with the one surface thereof, the powder having a particle size of 425 through 1180 μm and hardness of Hv400 through Hv500, and sintering the second metallic material and the supporting layer, and after sintering them, the sliding layer is densified by second impact processing such that spherical powder collides with a surface of the sliding layer, the spherical powder having a particle size of 1000 through 1700 μm and hardness of Hv400 through Hv500, to apply pressure to the surface of the sliding layer such that voids in the sliding layer are crumpled and decreased to have hardness of the sliding layer of Hv130 through Hv140, and the surface of the densified sliding layer is polished. a supporting layer composed of Fe-based first metallic material; and a sliding layer composed of Cu-based second metallic material that is different from the first metallic material, the sliding layer being formed on one surface of the supporting layer, wherein the sliding layer is formed by thermal spraying the second metallic material on the one surface of the supporting layer which is roughed by first impact processing such that powder having a corner part with an acute angle collides with the one surface thereof, the powder having a particle size of 425 through 1180 μm and hardness of Hv400 through Hv500, and sintering the second metallic material and the supporting layer, and after sintering them, the sliding layer is densified by second impact processing such that spherical powder collides with a surface of the sliding layer, the spherical powder having a particle size of 1000 through 1700 μm and hardness of Hv400 through Hv500, to apply pressure to the surface of the sliding layer such that voids in the sliding layer are crumpled and decreased to have hardness of the sliding layer of Hv130 through Hv140, and the surface of the densified sliding layer is polished.
An electrical process control sensor assembly for sensing a process or machine parameter, the assembly including a sensor body and a head , the body defining a body interior , the assembly including a sensing device at least partially located in the body interior , the head defining a head interior which communicates with the body interior , the assembly including a connector arrangement located in the head interior , the assembly including internal communicating members extending between the sensing device and the connector arrangement , the connector arrangement connecting, in an installed condition, the internal communicating members to external communicating members to permit electrical communication therebetween, the head defining a port through which the external connecting members are located in the installed condition, the assembly including a mounting for mounting the head to the body which is arranged to permit adjustment of the orientation of the head relative to the body , the mounting being arranged to permit rotation of the head and the port relative to the body and the connector arrangement , around a mounting axis , characterised in that the mounting includes a spigot formation and a socket formation, the socket formation defining a spigot receiving recess, which receives the spigot formation in an assembled condition, the spigot formation comprising part of the head and the socket formation comprising part of the body.
An uplink reference signal sending method, comprising: sending , by a terminal device in a first uplink subframe on a first carrier, an uplink reference signal to a network device, wherein the first carrier is a carrier on which the terminal device sends neither uplink data nor uplink control information in uplink; and determining , by the terminal device, a first power headroom, PHR, wherein the first PHR is a PHR of a transmit power of the terminal device in the first uplink subframe or a PHR of a transmit power of the terminal device in the first uplink subframe on the first carrier; wherein, when a quantity of a plurality of configured uplink carriers exceeds a maximum quantity of uplink carriers supported by the terminal device for simultaneous sending, the terminal device sends the uplink reference signal on individual uplink carriers by means of time division. sending , by a terminal device in a first uplink subframe on a first carrier, an uplink reference signal to a network device, wherein the first carrier is a carrier on which the terminal device sends neither uplink data nor uplink control information in uplink; and determining , by the terminal device, a first power headroom, PHR, wherein the first PHR is a PHR of a transmit power of the terminal device in the first uplink subframe or a PHR of a transmit power of the terminal device in the first uplink subframe on the first carrier; wherein, when a quantity of a plurality of configured uplink carriers exceeds a maximum quantity of uplink carriers supported by the terminal device for simultaneous sending, the terminal device sends the uplink reference signal on individual uplink carriers by means of time division.
Refrigerated display case with at least one unit composed of a plurality of wall groups, viz., a bottom group , a rear wall group , and a top group , which delimit a refrigerated chamber at a bottom, at a back, and at a top, and with a cooling device that has a refrigerant circuit at least comprising an evaporator , a condenser , and an electrical control device as components, and containing propane as the refrigerant, wherein the cooling device has a compressor as further components, characterized in that propane is contained as the refrigerant in the refrigerant circuit, with a filling quantity between 300 g and 1,500 g, that the compressor and the condenser are arranged spaced apart from each other in different wall groups, wherein the compressor is arranged beneath the evaporator in the lower region of the rear wall group , and the condenser is arranged on or in the top group , and a pressure vessel of a dryer/collector unit of the condenser has a volume of between 0.4 L and 1.4 L, that the evaporator is arranged in the rear wall group , and that the refrigerant circuit has a low-pressure region with an operating pressure between 80,000 Pa and 200,000 Pa and a high-pressure region with an operating pressure between 2,000,000 Pa and 3,000,000 Pa. propane is contained as the refrigerant in the refrigerant circuit, with a filling quantity between 300 g and 1,500 g, that the compressor and the condenser are arranged spaced apart from each other in different wall groups, wherein the compressor is arranged beneath the evaporator in the lower region of the rear wall group , and the condenser is arranged on or in the top group , and a pressure vessel of a dryer/collector unit of the condenser has a volume of between 0.4 L and 1.4 L, that the evaporator is arranged in the rear wall group , and that the refrigerant circuit has a low-pressure region with an operating pressure between 80,000 Pa and 200,000 Pa and a high-pressure region with an operating pressure between 2,000,000 Pa and 3,000,000 Pa.
A child stroller apparatus comprising: a first frame portion provided with a first wheel assembly ; a second frame portion including a stand platform and a second wheel assembly disposed adjacent to each other, the second frame portion being assembled with the first frame portion for sliding movement along a lengthwise axis (Y) extending from a front to a rear of the child stroller apparatus ; a control mechanism operable to adjust a position of the second frame portion relative to the first frame portion , characterized in that the control mechanism includes an actuator assembled with the second frame portion adjacent to the stand platform , the actuator being operable to drive the second frame portion in sliding movement relative to the first frame portion for modifying a distance between the first and second wheel assemblies ; whereby the child stroller apparatus further comprises a latch assembled with the second frame portion and operatively connected with the actuator via a linking assembly , the latch engaging with the first frame portion to lock the second frame portion in position relative to the first frame portion , and the actuator further being operable to cause the latch to disengage from the first frame portion for unlocking the second frame portion . a first frame portion provided with a first wheel assembly ; a second frame portion including a stand platform and a second wheel assembly disposed adjacent to each other, the second frame portion being assembled with the first frame portion for sliding movement along a lengthwise axis (Y) extending from a front to a rear of the child stroller apparatus ; a control mechanism operable to adjust a position of the second frame portion relative to the first frame portion , characterized in that the control mechanism includes an actuator assembled with the second frame portion adjacent to the stand platform , the actuator being operable to drive the second frame portion in sliding movement relative to the first frame portion for modifying a distance between the first and second wheel assemblies ; whereby the child stroller apparatus further comprises a latch assembled with the second frame portion and operatively connected with the actuator via a linking assembly , the latch engaging with the first frame portion to lock the second frame portion in position relative to the first frame portion , and the actuator further being operable to cause the latch to disengage from the first frame portion for unlocking the second frame portion .
A method for providing an embedded mammalian cell, comprising the steps of - providing a sulfated alginate having a degree of sulfation between 0.1 and 1 per monomer in aqueous solution; - reacting said sulfated alginate to form a hydrogel essentially constituted of sulfated alginate having a degree of sulfation from 0.1 to 1 per monomer in a gelation step, - providing a precursor cell, - embedding said precursor cell in said sulfated alginate hydrogel in an embedding step, thus yielding a sulfated alginate hydrogel embedded cell. - providing a sulfated alginate having a degree of sulfation between 0.1 and 1 per monomer in aqueous solution; - reacting said sulfated alginate to form a hydrogel essentially constituted of sulfated alginate having a degree of sulfation from 0.1 to 1 per monomer in a gelation step, - providing a precursor cell, - embedding said precursor cell in said sulfated alginate hydrogel in an embedding step,
A composition for treating hair, skin, or fiber, comprising the polymer represented by Chemical Formula 1 below: wherein n number of Q is each independently H or but not all H, R 1 , R 2 , and R 3 are each independently C 1-6 alkyl, alkenyl, or alkynyl, m is an integer from 1 to 10, γ is H or OH; x is an integer from 1 to 100; n is an integer from 10 to 1000; α and β are each independently O(CH 2 CH 2 O) s H, wherein s is an integer from 0 to 100; and wherein the molecular weight of the polymer is 300,000 to 2,900,000, and wherein the polymer represented by Chemical Formula 1 has a nitrogen content of 2.3 wt.% to 3.2 wt.%, based on the total weight of the polymer. wherein n number of Q is each independently H or but not all H, R 1 , R 2 , and R 3 are each independently C 1-6 alkyl, alkenyl, or alkynyl, m is an integer from 1 to 10, γ is H or OH; x is an integer from 1 to 100; n is an integer from 10 to 1000; α and β are each independently O(CH 2 CH 2 O) s H, wherein s is an integer from 0 to 100; and wherein the molecular weight of the polymer is 300,000 to 2,900,000, and wherein the polymer represented by Chemical Formula 1 has a nitrogen content of 2.3 wt.% to 3.2 wt.%, based on the total weight of the polymer.
A method of forming end-form structures from recycled plastics, the method comprising: i) providing a plurality of noodles of molten agglomerated plastic; ii) delivering the molten agglomerated plastic noodles to a shaper in the form of a sloping, rotating cylindrical tube ; iii) forming an end-form of agglomerated plastic noodles in the shaper by controlling movement and/or position of the shaper, the end-form comprising the agglomerated plastic noodles welded together with voids therebetween; and iv) cooling at least an outer profile of the end-form to form the structure. i) providing a plurality of noodles of molten agglomerated plastic; ii) delivering the molten agglomerated plastic noodles to a shaper in the form of a sloping, rotating cylindrical tube ; iii) forming an end-form of agglomerated plastic noodles in the shaper by controlling movement and/or position of the shaper, the end-form comprising the agglomerated plastic noodles welded together with voids therebetween; and iv) cooling at least an outer profile of the end-form to form the structure.
A control method for preventing a motor from overheating when a hybrid vehicle having a motor and an engine for providing drive torque is driven, the method comprising: a) monitoring, by a controller, the motor temperature of the ybrid vehicle; b) operating, by the controller, the engine when the current motor temperature of the motor is a first motor temperature or greater when the vehicle is driven in an electric vehicle mode in which the drive torque is provided only by the motor, so that the drive torque is provided by both the motor and the engine; and, after the engine is operated c) limiting, by the controller, the motor output when the current motor temperature is equal to or greater than a third motor temperature, wherein the third motor temperature is greater than the first motor temperature; and d) limiting, by the controller, the motor output when the current motor temperature of the motor is a second motor temperature or greater during regenerative braking, the control method being characterized in that the second motor temperature is greater that the first motor temperature and less that the third motor temperature; wherein when the outside temperature of the vehicle is a predetermined temperature or greater or when a transmission oil temperature is a reference temperature or greater, a motor temperature value, corrected using the outside temperature and the transmission oil temperature as temperature correction factors, is used as the current motor temperature. a) monitoring, by a controller, the motor temperature of the ybrid vehicle; b) operating, by the controller, the engine when the current motor temperature of the motor is a first motor temperature or greater when the vehicle is driven in an electric vehicle mode in which the drive torque is provided only by the motor, so that the drive torque is provided by both the motor and the engine; and, after the engine is operated c) limiting, by the controller, the motor output when the current motor temperature is equal to or greater than a third motor temperature, wherein the third motor temperature is greater than the first motor temperature; and d) limiting, by the controller, the motor output when the current motor temperature of the motor is a second motor temperature or greater during regenerative braking, the control method being characterized in that the second motor temperature is greater that the first motor temperature and less that the third motor temperature;
Cellulosic banknote comprising a cellulosic banknote substrate having a surface (S1), wherein the cellulosic banknote substrate comprises all security features within the substrate and applied on the surface (S1) of the substrate , and an amphiphobic coating , wherein the amphiphobic coating comprises an inorganic material selected from the group of ceramic oxides and an organic fluoro material selected from the group consisting of fluoroalkylsilane polymers (FAS), acrylic fluoropolymers, and perfluoropolyalkylether polymers, and is arranged on at least part of a surface (S1) of the cellulosic banknote substrate , characterized in that the inorganic material is configured as a layer (L1) having a nanostructured surface (S2) on at least part of the surface (S1) of the cellulosic banknote substrate , wherein the layer (L1) of inorganic material has a mean thickness of less than 1 μm and wherein the nanostructured surface (S2) of the inorganic material layer (L1) is at least partly coated with the organic fluoro material thereby forming a fluorinated inorganic material layer exhibiting a nanostructured surface (S3) as the amphiphobic coating having i. a static water contact angle > 110°, preferably ≥ 120°, preferably ≥ 140° measured at room temperature with a sessile drop method using 1 μl per drop deionized water, ii. a static n-hexadecane contact angle ≥ 60°, preferably ≥ 80°, more preferably ≥ 100° measured at room temperature with a sessile drop method using 1 μl per drop n-hexadecane, iii. optionally a melted sebum contact angle ≥ 60°, preferably ≥ 80° measured at 50 °C with a sessile drop method using 1 μl per drop synthetic sebum, and iv. optionally a surface energy ≤ 20 mJ/m 2 , preferable ≤ 15 mJ/m 2 , more preferable ≤ 10 mJ/m 2 determined with the Owens, Wendt, Rabel and Kaelble (OWRK) method. i. a static water contact angle > 110°, preferably ≥ 120°, preferably ≥ 140° measured at room temperature with a sessile drop method using 1 μl per drop deionized water, ii. a static n-hexadecane contact angle ≥ 60°, preferably ≥ 80°, more preferably ≥ 100° measured at room temperature with a sessile drop method using 1 μl per drop n-hexadecane, iii. optionally a melted sebum contact angle ≥ 60°, preferably ≥ 80° measured at 50 °C with a sessile drop method using 1 μl per drop synthetic sebum, and iv. optionally a surface energy ≤ 20 mJ/m 2 , preferable ≤ 15 mJ/m 2 , more preferable ≤ 10 mJ/m 2 determined with the Owens, Wendt, Rabel and Kaelble (OWRK) method.
A sealing tape which has at least one main body produced from flexible foam which can recover following compression, wherein the sealing tape has an upper side , a lower side and a first and a second side flank which connect the upper side and lower side , wherein the side flanks extend substantially perpendicular to a functional direction (F) of the sealing tape , wherein an adhesive layer is disposed in the region of the lower side for adhesion to a building component , in particular a frame profile of a window or a door, wherein the upper side of the sealing tape has a profile with at least one depression such that in a fully expanded state, the sealing tape has a first height (h 1 ) in the region of the first side flank , a second height (h 2 ) in the region of the second side flank and a third height (h 3 ) in a region between the first and second side flank which is smaller than the first height (h 1 ) and smaller than the second height (h 2 ), wherein the first height (h 1 ) of the sealing tape in the fully expanded state is between 5 and 150 mm and the second height (h 2 ) of the sealing tape in the fully expanded state is between 5 and 150 mm, and wherein an inner space of the depression is exclusively filled with air in the fully expanded state of the sealing tape , in the fully expanded state of the sealing tape , the smaller third height (h 3 ) is obtained at least in part by a permanent compression and/or fusion of the foam of the at least one main body . wherein the sealing tape has an upper side , a lower side and a first and a second side flank which connect the upper side and lower side , wherein the side flanks extend substantially perpendicular to a functional direction (F) of the sealing tape , wherein an adhesive layer is disposed in the region of the lower side for adhesion to a building component , in particular a frame profile of a window or a door, wherein the upper side of the sealing tape has a profile with at least one depression such that in a fully expanded state, the sealing tape has a first height (h 1 ) in the region of the first side flank , a second height (h 2 ) in the region of the second side flank and a third height (h 3 ) in a region between the first and second side flank which is smaller than the first height (h 1 ) and smaller than the second height (h 2 ), wherein the first height (h 1 ) of the sealing tape in the fully expanded state is between 5 and 150 mm and the second height (h 2 ) of the sealing tape in the fully expanded state is between 5 and 150 mm, and wherein an inner space of the depression is exclusively filled with air in the fully expanded state of the sealing tape , in the fully expanded state of the sealing tape , the smaller third height (h 3 ) is obtained at least in part by a permanent compression and/or fusion of the foam of the at least one main body .