mhurhangee/ep-ind-claims huggingface dataset:
A curable composition, comprising: an organopolysiloxane comprising an aliphatic unsaturated bond; and an organopolysiloxane that is represented by an average composition formula of Formula 7, that comprises an alkenyl group and an epoxy group, and doesn't comprise an aryl group, and that is comprised in an amount of 0.5 to 10 parts by weight relative to 100 parts by weight of the total organopolysiloxanes in the composition: [Formula 7] (R 3 SiO 1/2) l (R 2 SiO 2/2) m (RSiO 3/2) r (SiO 4/2)s wherein R's are each independently a monovalent hydrocarbon group that is not an aryl group, or an epoxy group, with the proviso that at least one of R's is an alkenyl group and at least one of R's is an epoxy group; l, m, r and s are each 0 or a positive number, with the proviso that r and s are not simultaneously 0 and (r+f)/(l+m+r+s) is 0.2 to 0.7. an organopolysiloxane comprising an aliphatic unsaturated bond; and an organopolysiloxane that is represented by an average composition formula of Formula 7, that comprises an alkenyl group and an epoxy group, and doesn't comprise an aryl group, and that is comprised in an amount of 0.5 to 10 parts by weight relative to 100 parts by weight of the total organopolysiloxanes in the composition: [Formula 7] (R 3 SiO 1/2) l (R 2 SiO 2/2) m (RSiO 3/2) r (SiO 4/2)s wherein R's are each independently a monovalent hydrocarbon group that is not an aryl group, or an epoxy group, with the proviso that at least one of R's is an alkenyl group and at least one of R's is an epoxy group; l, m, r and s are each 0 or a positive number, with the proviso that r and s are not simultaneously 0 and (r+f)/(l+m+r+s) is 0.2 to 0.7.
A cannula assembly which comprises a cannula adapted for insertion within tissue, the cannula including a longitudinal passage extending along a longitudinal axis of the cannula for passage of a surgical instrument, and defining proximal and distal ends; and an expandable member mounted to the cannula and longitudinally spaced from the distal end, the expandable member adapted to expand, upon introduction of fluids therein, in a radial outward direction relative to the longitudinal axis whereby the expandable member engages the tissue to facilitate anchoring of the cannula relative to the tissue, and to expand in a radial inward direction relative to the longitudinal axis and within the longitudinal passage to engage the surgical instrument positioned within the longitudinal passage to facilitate formation of a seal about the surgical instrument, the expandable member including an instrument engaging segment and a tissue engaging segment; characterized in that the cannula includes first and second fluid conduits (202, 204) in fluid communication with respective internal chambers of the instrument engaging segment and the tissue engaging segment; and said internal chamber of the instrument engaging segment is isolated from said internal chamber of the tissue engaging segment.
Electric parking brake device, comprising: a) an electronic control unit, b) an electromagnetic valve device controlled by the said electronic control unit, the said valve device having a venting position, c) at least one passive spring-actuated brake cylinder, which releases the parking brake when aerated and applies it when vented, d) a relay valve with a pneumatic control inlet, which is connected to the electromagnetic valve device, which in the venting position vents the pneumatic control inlet of the relay valve, whereby a working outlet of the relay valve which is connected to the at least one spring-actuated brake cylinder is vented, e) a first electrical energy supply which supplies the electronic control unit with electrical energy for actuating the electromagnetic valve device, f) an electrical actuating device which emits to the electronic control unit control signals that represent at least the conditions "Park" and "Drive", wherein g) a second electrical energy supply independent of the first electrical energy supply is provided, characterised in that h) by means of the said second electrical energy supply an electric switching device independent of the electronic control unit can be supplied with electrical energy, and i) at least one electric switch is provided, which in one switch position connects the electric switching device to the second electrical energy supply, wherein j) the electric switching device is designed such that by virtue of the connection to the second electrical energy supply, it switches the electromagnetic valve device to the venting position. a) an electronic control unit, b) an electromagnetic valve device controlled by the said electronic control unit, the said valve device having a venting position, c) at least one passive spring-actuated brake cylinder, which releases the parking brake when aerated and applies it when vented, d) a relay valve with a pneumatic control inlet, which is connected to the electromagnetic valve device, which in the venting position vents the pneumatic control inlet of the relay valve, whereby a working outlet of the relay valve which is connected to the at least one spring-actuated brake cylinder is vented, e) a first electrical energy supply which supplies the electronic control unit with electrical energy for actuating the electromagnetic valve device, f) an electrical actuating device which emits to the electronic control unit control signals that represent at least the conditions "Park" and "Drive", wherein g) a second electrical energy supply independent of the first electrical energy supply is provided, characterised in that h) by means of the said second electrical energy supply an electric switching device independent of the electronic control unit can be supplied with electrical energy, and i) at least one electric switch is provided, which in one switch position connects the electric switching device to the second electrical energy supply, wherein j) the electric switching device is designed such that by virtue of the connection to the second electrical energy supply, it switches the electromagnetic valve device to the venting position.
A method, implemented at a computer system that includes one or more processors, for performing a speculative replay of code execution, the method comprising: replaying trace data (300, 400) comprising one or more trace data streams that represent execution of one or more executable entities (501a-501c), including storing first runtime state of replaying the trace data in one or more first replay data structures; during replay of the trace data, encountering a first point of interest in the one or more executable entities; based at least on encountering the first point of interest, ceasing replay of the trace data, and presenting at a user interface at least a portion of the first runtime state stored in the one or more first replay data structures; and while presenting the portion of the first runtime state at the user interface, speculatively replaying the trace data, including: automatically selecting a second point of interest (503b-503e) in the one or more executable entities; creating one or more second replay data structures (502b-502e) based on the one or more first replay data structures; and replaying the trace data until encountering the second point of interest, including storing second runtime state of replaying the trace data in the one or more second replay data structures. replaying trace data (300, 400) comprising one or more trace data streams that represent execution of one or more executable entities (501a-501c), including storing first runtime state of replaying the trace data in one or more first replay data structures; during replay of the trace data, encountering a first point of interest in the one or more executable entities; based at least on encountering the first point of interest, ceasing replay of the trace data, and presenting at a user interface at least a portion of the first runtime state stored in the one or more first replay data structures; and while presenting the portion of the first runtime state at the user interface, speculatively replaying the trace data, including: automatically selecting a second point of interest (503b-503e) in the one or more executable entities; creating one or more second replay data structures (502b-502e) based on the one or more first replay data structures; and replaying the trace data until encountering the second point of interest, including storing second runtime state of replaying the trace data in the one or more second replay data structures. automatically selecting a second point of interest (503b-503e) in the one or more executable entities; creating one or more second replay data structures (502b-502e) based on the one or more first replay data structures; and replaying the trace data until encountering the second point of interest, including storing second runtime state of replaying the trace data in the one or more second replay data structures.
Light module for a motor vehicle comprising: - a heat sink comprising at least two mounting faces (100, 101) forming an angle (θ) between them; - at least two light guides (11, 12), each comprising an input face (110, 120) and a branch (111, 121); - at least two light sources, each arranged at one of said input faces (110, 120) of the light guides which is associated with it; in which each input face (110, 120) is arranged facing one of the mounting faces (100, 101) of said heat sink and is adapted to couple the light rays emitted by the light source into the associated light guide (11, 12), characterized in that each light guide (11, 12) is mounted directly on one of the mounting faces (100, 101) of said heat sink which is associated with it. - a heat sink comprising at least two mounting faces (100, 101) forming an angle (θ) between them; - at least two light guides (11, 12), each comprising an input face (110, 120) and a branch (111, 121); - at least two light sources, each arranged at one of said input faces (110, 120) of the light guides which is associated with it;
A micro-hybrid battery system, comprising: - a lithium ion battery module configured to be coupled to an electrical load, wherein the lithium ion battery module comprises: - a housing; and - a plurality of lithium ion battery cells disposed in the housing, wherein at least one first lithium ion battery cell of the plurality of lithium ion battery cells has a first active material chemistry comprising a first cathode active material and a first anode active material, and wherein at least one second lithium ion battery cell of the plurality of lithium ion battery cells electrically connected to the first lithium ion battery cell has a second active material chemistry comprising a second cathode active material and a second anode active material, wherein the first and second active material chemistries are different such that the first and second lithium ion battery cells (44a, 44b) have different open circuit voltages, wherein the first and second lithium ion battery cells (44a, 44b) are electrically coupled in series; and - an energy storage unit electrically coupled in parallel to the lithium ion battery module, wherein the energy storage unit and the lithium ion battery module are voltage matched, and wherein the plurality of lithium ion battery cells is configured such that the lithium ion battery module has a voltage profile of voltage as a function of state of charge that overlaps a voltage window of the energy storage unit, the overlap occurring within a first SOC range of the voltage profile in which the lithium ion battery module is intended to operate within the micro-hybrid battery system, wherein the voltage window of the energy storage unit corresponds to a second SOC range in which the energy storage unit is intended to operate within the micro-hybrid battery system. - a lithium ion battery module configured to be coupled to an electrical load, wherein the lithium ion battery module comprises: - a housing; and - a plurality of lithium ion battery cells disposed in the housing, wherein at least one first lithium ion battery cell of the plurality of lithium ion battery cells has a first active material chemistry comprising a first cathode active material and a first anode active material, and wherein at least one second lithium ion battery cell of the plurality of lithium ion battery cells electrically connected to the first lithium ion battery cell has a second active material chemistry comprising a second cathode active material and a second anode active material, wherein the first and second active material chemistries are different such that the first and second lithium ion battery cells (44a, 44b) have different open circuit voltages, wherein the first and second lithium ion battery cells (44a, 44b) are electrically coupled in series; and - a housing; and - a plurality of lithium ion battery cells disposed in the housing, - an energy storage unit electrically coupled in parallel to the lithium ion battery module,
A dry platelet composition for use in the treatment of a wound, wherein the treatment of the wound comprises topical application of the dry platelet composition per se to the wound, the composition comprising: a plurality of dry platelets; one or more cryoprotective agents; and inhibitors of platelet activation comprising at least one effector of the cyclic adenosine monophosphate (cAMP) second messenger system, at least one sodium channel inhibitor, and at least one effector of the cyclic guanosine 5' monophosphate (cGMP) second messenger system. a plurality of dry platelets; one or more cryoprotective agents; and inhibitors of platelet activation comprising at least one effector of the cyclic adenosine monophosphate (cAMP) second messenger system, at least one sodium channel inhibitor, and at least one effector of the cyclic guanosine 5' monophosphate (cGMP) second messenger system.
A method performed by a first device (105, 115) in a wireless network, wherein the wireless network comprises the first device (105, 115), a second device (105, 115) and an intermediate device and wherein the second device (105, 115) and the intermediate device are configured to operate in either an on-frequency mode of operation or a frequency translated mode of operation, the method being characterized by: receiving channel quality feedback information, based on transmitted channel estimation symbols, from the second device (105, 115) or the intermediate device; calculating, based on the received channel quality feedback information, an outage capacity associated with the on-frequency mode of operation and the outage capacity associated with the frequency translated mode of operation; selecting the on-frequency mode of operation or the frequency translated mode of operation that maximizes outage capacity based on the calculated outage capacities associated with the on-frequency and frequency translated modes of operation; and transmitting, to the second device (105, 115) and the intermediate device, a message indicating to operate in an on-frequency mode or a frequency translated mode based on the selected on-frequency mode of operation or the frequency-translated mode of operation. receiving channel quality feedback information, based on transmitted channel estimation symbols, from the second device (105, 115) or the intermediate device; calculating, based on the received channel quality feedback information, an outage capacity associated with the on-frequency mode of operation and the outage capacity associated with the frequency translated mode of operation; selecting the on-frequency mode of operation or the frequency translated mode of operation that maximizes outage capacity based on the calculated outage capacities associated with the on-frequency and frequency translated modes of operation; and transmitting, to the second device (105, 115) and the intermediate device, a message indicating to operate in an on-frequency mode or a frequency translated mode based on the selected on-frequency mode of operation or the frequency-translated mode of operation.
A method for controlling arc welding where an arc is generated between a welding wire as a consumable electrode and an object to be welded, the method comprising: keeping a wire feed speed at a predetermined constant speed in a steady-state welding period; and controlling the wire feed speed at a time point when welding termination is ordered to switch the wire feed speed from the predetermined constant speed to a wire feed speed at which the welding wire is fed in alternately repeating forward and backward directions, and then decreasing, with time, an average of the wire feed speed while alternately repeating the forward and backward directions, or decrease, with time, the wire feed speed from the predetermined constant speed with time, and then, switch the wire feed speed to the wire feed speed at which the welding wire is fed in alternately repeating the forward and backward directions at a time point when a predetermined time period has passed since when welding termination has been ordered, and decrease, with time, an average of the wire feed speed while alternately repeating the forward and backward directions. keeping a wire feed speed at a predetermined constant speed in a steady-state welding period; and controlling the wire feed speed at a time point when welding termination is ordered to switch the wire feed speed from the predetermined constant speed to a wire feed speed at which the welding wire is fed in alternately repeating forward and backward directions, and then decreasing, with time, an average of the wire feed speed while alternately repeating the forward and backward directions, or decrease, with time, the wire feed speed from the predetermined constant speed with time, and then, switch the wire feed speed to the wire feed speed at which the welding wire is fed in alternately repeating the forward and backward directions at a time point when a predetermined time period has passed since when welding termination has been ordered, and decrease, with time, an average of the wire feed speed while alternately repeating the forward and backward directions. switch the wire feed speed from the predetermined constant speed to a wire feed speed at which the welding wire is fed in alternately repeating forward and backward directions, and then decreasing, with time, an average of the wire feed speed while alternately repeating the forward and backward directions, or decrease, with time, the wire feed speed from the predetermined constant speed with time, and then, switch the wire feed speed to the wire feed speed at which the welding wire is fed in alternately repeating the forward and backward directions at a time point when a predetermined time period has passed since when welding termination has been ordered, and decrease, with time, an average of the wire feed speed while alternately repeating the forward and backward directions.
Device for manufacturing crimped textile yarn, comprising - a texturing unit provided to produce at least two yarn plugs,, from synthetic material, - a rotatable cooling drum with a cooling surface for cooling the yarn plugs,, supplied from the texturing unit, and - gas stream means (7, 8) provided to generate a gas stream to keep the yarn plugs,, on the cooling surface, and in which the device is provided - to place the supplied yarn plugs,, next to each other in a first zone of the cooling surface on the rotating cooling drum, so that they are carried along running alongside each other on the cooling surface, - in order to move the yarn plugs,, running alongside each other laterally to a second zone of the cooling surface during their first turn on the cooling drum, so that the supplied yarn plugs,, are placed on the cooling surface at an intermediate distance from the yarn plugs,, running alongside each other which have been moved to the second zone, and - to lead the yarn plugs,, away from the cooling drum for their further treatment after forming more than one winding, of yarn plugs,, running alongside each other on the cooling drum. characterized in that the gas stream means (7, 8) are provided to generate a gas stream (F B) in the second zone of the cooling surface, so that the yarn plugs in this second zone are kept on the cooling surface, and not to generate a gas stream in an intermediate zone of the cooling surface, situated between the first and the second zone, or to generate a gas stream which is less powerful than in the second zone, in order to prevent interference between the yarn plugs,, in the second zone and the yarn plugs,, in the first zone. - a texturing unit provided to produce at least two yarn plugs,, from synthetic material, - a rotatable cooling drum with a cooling surface for cooling the yarn plugs,, supplied from the texturing unit, and - gas stream means (7, 8) provided to generate a gas stream to keep the yarn plugs,, on the cooling surface, - to place the supplied yarn plugs,, next to each other in a first zone of the cooling surface on the rotating cooling drum, so that they are carried along running alongside each other on the cooling surface, - in order to move the yarn plugs,, running alongside each other laterally to a second zone of the cooling surface during their first turn on the cooling drum, so that the supplied yarn plugs,, are placed on the cooling surface at an intermediate distance from the yarn plugs,, running alongside each other which have been moved to the second zone, and - to lead the yarn plugs,, away from the cooling drum for their further treatment after forming more than one winding, of yarn plugs,, running alongside each other on the cooling drum.