mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a curable resin adduct powder, comprising providing a curable resin, at least 0.1%wt of a nano scale particulate filler, and at least one curing stimulus, comprising the steps of a) forming a resin admixture, b) causing the partial cure of the resin admixture at a controlled temperature less than 50°C to form a partially cured adduct, c) reducing the partially cured adduct by mechanical reduction under controlled temperature conditions, to a curable resin adduct powder.. a) forming a resin admixture, b) causing the partial cure of the resin admixture at a controlled temperature less than 50°C to form a partially cured adduct, c) reducing the partially cured adduct by mechanical reduction under controlled temperature conditions, to a curable resin adduct powder..
A process for producing a compound of formula (I) wherein a compound of formula (II) is reacted with a compound of formula (III) R 2 -OH (III) where in each case: R 1 represents (C 1 -C 12 ) -alkyl, (C 1 -C 12 ) -haloalkyl, (C 6 -C 10 ) -aryl, (C 6 -C 10 ) -haloaryl, (C 7 -C 10 ) -aralkyl, (C 7 -C 10 ) -haloaralkyl, (C 4 -C 10 ) -cycloalkyl or (C 4 -C 10 ) - halocycloalkyl, R 2 represents (C 3 -C 12 ) -alkyl, (C 3 -C 12 ) -haloalkyl, (C 6 -C 10 ) -aryl, (C 6 -C 10 ) -haloaryl, (C 7 -C 10 ) -aralkyl, (C 7 -C 10 ) -haloaralkyl, (C 4 -C 10 ) -cycloalkyl or (C 4 -C 10 )-halocycloalkyl, R 3 and R 4 each independently of one another represent methyl or ethyl, in the presence of an acidic catalyst and in the presence of water. R 1 represents (C 1 -C 12 ) -alkyl, (C 1 -C 12 ) -haloalkyl, (C 6 -C 10 ) -aryl, (C 6 -C 10 ) -haloaryl, (C 7 -C 10 ) -aralkyl, (C 7 -C 10 ) -haloaralkyl, (C 4 -C 10 ) -cycloalkyl or (C 4 -C 10 ) - halocycloalkyl, R 2 represents (C 3 -C 12 ) -alkyl, (C 3 -C 12 ) -haloalkyl, (C 6 -C 10 ) -aryl, (C 6 -C 10 ) -haloaryl, (C 7 -C 10 ) -aralkyl, (C 7 -C 10 ) -haloaralkyl, (C 4 -C 10 ) -cycloalkyl or (C 4 -C 10 )-halocycloalkyl, R 3 and R 4 each independently of one another represent methyl or ethyl, in the presence of an acidic catalyst and in the presence of water.
A method for a device operating in a wireless communication system, the method comprising: generating a medium access control, MAC, protocol data unit, PDU, including a MAC PDU subheader, the MAC PDU subheader including a first octet of 8 bits, wherein the first octet includes a logical channel identity, LCID, field; and transmitting the generated MAC PDU to a second device in the wireless communication system, wherein a specific value of the LCID field informs of that a second octet of 8 bits following the first octet is presented for an extended LCID, eLCID, field in the MAC PDU subheader, wherein the eLCID field identifies a type of a MAC control element, CE, and wherein the MAC PDU further includes the MAC CE, wherein a length, L, field related to a length of a MAC CE is included in a third octet of 8 bits in the MAC PDU subheader, and the second octet is followed by the third octet, wherein the first octet includes the LCID field and a reserved bit, and the second octet includes only the eLCID field, and the third octet includes only the L field, wherein there is no octet between the first octet and the second octet, and wherein other value than the specific value of the LCID field identifies a logical channel instance of a corresponding MAC SDU or a type of a corresponding MAC CE or padding without the eLCID field. generating a medium access control, MAC, protocol data unit, PDU, including a MAC PDU subheader, the MAC PDU subheader including a first octet of 8 bits, wherein the first octet includes a logical channel identity, LCID, field; and transmitting the generated MAC PDU to a second device in the wireless communication system, wherein a specific value of the LCID field informs of that a second octet of 8 bits following the first octet is presented for an extended LCID, eLCID, field in the MAC PDU subheader, wherein the eLCID field identifies a type of a MAC control element, CE, and wherein the MAC PDU further includes the MAC CE, wherein a length, L, field related to a length of a MAC CE is included in a third octet of 8 bits in the MAC PDU subheader, and the second octet is followed by the third octet, wherein the first octet includes the LCID field and a reserved bit, and the second octet includes only the eLCID field, and the third octet includes only the L field, wherein there is no octet between the first octet and the second octet, and wherein other value than the specific value of the LCID field identifies a logical channel instance of a corresponding MAC SDU or a type of a corresponding MAC CE or padding without the eLCID field.
An assembly for an autoinjector device , the assembly including: a syringe support for supporting a syringe by limiting forward axial movement of the syringe relative to the syringe support and arranged such that axial movement of the syringe support results in axial movement of the syringe; and a guard element attachable to a rear end of the syringe support ; characterised in that the guard element is attachable to the syringe support so that the guard element is axially restrained both axially forwardly and axially rearwardly relative to the syringe support , wherein attachment of the guard element to the syringe support is by abutment of first abutment features on the syringe support and second abutment features on the guard element ; wherein forward axial movement of the guard element relative to the syringe support is limited by the abutment of the first and second abutment features; wherein the guard element has a flange having an axially rearward surface ; and wherein forwardly directed axial loads received by the axially rearward surface are transmitted to the syringe support via the abutment of the first and second abutment features. a syringe support for supporting a syringe by limiting forward axial movement of the syringe relative to the syringe support and arranged such that axial movement of the syringe support results in axial movement of the syringe; and a guard element attachable to a rear end of the syringe support ; characterised in that the guard element is attachable to the syringe support so that the guard element is axially restrained both axially forwardly and axially rearwardly relative to the syringe support , wherein attachment of the guard element to the syringe support is by abutment of first abutment features on the syringe support and second abutment features on the guard element ; wherein forward axial movement of the guard element relative to the syringe support is limited by the abutment of the first and second abutment features; wherein the guard element has a flange having an axially rearward surface ; and wherein forwardly directed axial loads received by the axially rearward surface are transmitted to the syringe support via the abutment of the first and second abutment features.
Horseshoe nail for nailing a horseshoe to a hoof, wherein the horseshoe nail contains a shank with a tip at one end and a widened head at the other end and whereby the head is at least hardened over a part of its length (E) from its free end, whereas the shank is not hardened over its entire or almost entire length from the tip , characterized in that the horseshoe nail is made from steel with a carbon weight percentage between 0.18 and 0.25.
A cable, comprising: a film having a first pin region and a first dummy pin region adjacent to one another on a first face of the film , and a second pin region and a second dummy pin region adjacent to one another on a second face of the film opposite the first face, the second pin region overlapping the first dummy pin region and the second dummy pin region overlapping the first pin region ; a first cable pin and a second cable pin spaced apart from one another in the first pin region ; a third cable pin and a fourth cable pin spaced apart from one another in the second pin region ; a first cable signal line on the first face of the film and connected to the first cable pin , and a second cable signal line on the first face of the film and connected to the second cable pin ; and a third cable signal line on the second face of the film and connected to the third cable pin , and a fourth cable signal line on the second face of the film and connected to the fourth cable pin ; a first dummy pin and a second dummy pin disposed in the first dummy pin region at positions overlapping the third cable pin and the fourth cable pin , respectively; and a third dummy pin and a fourth dummy pin disposed in the second dummy pin region at positions overlapping the first cable pin and the second cable pin , respectively. a film having a first pin region and a first dummy pin region adjacent to one another on a first face of the film , and a second pin region and a second dummy pin region adjacent to one another on a second face of the film opposite the first face, the second pin region overlapping the first dummy pin region and the second dummy pin region overlapping the first pin region ; a first cable pin and a second cable pin spaced apart from one another in the first pin region ; a third cable pin and a fourth cable pin spaced apart from one another in the second pin region ; a first cable signal line on the first face of the film and connected to the first cable pin , and a second cable signal line on the first face of the film and connected to the second cable pin ; and a third cable signal line on the second face of the film and connected to the third cable pin , and a fourth cable signal line on the second face of the film and connected to the fourth cable pin ; a first dummy pin and a second dummy pin disposed in the first dummy pin region at positions overlapping the third cable pin and the fourth cable pin , respectively; and a third dummy pin and a fourth dummy pin disposed in the second dummy pin region at positions overlapping the first cable pin and the second cable pin , respectively.
A power management system comprising a plurality of lower power management apparatuses each of which is provided for each of a plurality of consumers and an upper power management apparatus that manages the plurality of lower power management apparatuses , wherein: the upper power management apparatus is configured to perform a process according to a power curtailment signal transmitted from a power company managing a power grid , the upper power management apparatus is configured to transmit, to the power company transmitting the power curtailment signal, configuration information of the consumer managed by the upper power management apparatus , characterized in that the configuration information comprises one or more of an amount of power that can be supplied by a dispersed power source provided within the consumer , and a predicted amount of power that can be supplied by the dispersed power source, the power curtailment signal is determined by the power company based on at least one of the amount of power that can be supplied by the dispersed power source and the predicted amount of power that can be supplied by the dispersed power source, and the process according to the power curtailment signal is a process of controlling amount of power consumed by a load provided within the consumer . the upper power management apparatus is configured to perform a process according to a power curtailment signal transmitted from a power company managing a power grid , the upper power management apparatus is configured to transmit, to the power company transmitting the power curtailment signal, configuration information of the consumer managed by the upper power management apparatus , characterized in that the configuration information comprises one or more of an amount of power that can be supplied by a dispersed power source provided within the consumer , and a predicted amount of power that can be supplied by the dispersed power source, the power curtailment signal is determined by the power company based on at least one of the amount of power that can be supplied by the dispersed power source and the predicted amount of power that can be supplied by the dispersed power source, and the process according to the power curtailment signal is a process of controlling amount of power consumed by a load provided within the consumer .
Powdered composition, containing per 100 g of the composition 25 mg to 250 mg of lutein, 2 mg to 12 mg of zeaxanthin, 1000 mg to 5000 mg of docosahexaenoic acid, 100 mg to 1200 mg of coenzyme Q10 and 30 g to 90 g of one or more excipients selected from thickeners, emulsifiers and stabilizers. 25 mg to 250 mg of lutein, 2 mg to 12 mg of zeaxanthin, 1000 mg to 5000 mg of docosahexaenoic acid, 100 mg to 1200 mg of coenzyme Q10 and 30 g to 90 g of one or more excipients selected from thickeners, emulsifiers and stabilizers.
An apparatus for the concentration of wastewater containing oily substances, the apparatus comprising: a. a shell and tube heat exchanger , positioned vertically along the internal perimeter of the apparatus; b. a tank positioned inside the shell and tube heat exchanger , wherein wastewater is stocked; c. an entrance pipe , for the entrance of wastewater, which pipe feeds a mechanic system , which allows wastewater to percolate along an internal wall of tank ; d. a pump and a second pump ; e. a pipe that connects the bottom of tank to suction of a pump ; f. a pipe connecting the mandate of pump to a distribution plate of heat exchanger ; g. a pipe connecting a bottom of the heat exchanger where concentrated water percolating into the pipes of the shell and tube heat exchanger collects, with suction of a second pump ; h. a pipe connecting a mandate of pump with the bulk of tank ; i. a ventilator, preferably a centrifuge ventilator ; j. an exit pipe connected to the ventilator, that draws vapors into exit from a head of the heat exchanger ; k. a system for collecting and discharging the condensed vapors which condenses in the dome of the apparatus, whose outside surface is configured to be in contact with external air, at ambient temperature; l. a system that maintains a level in the tank, which system is connected to an outlet pipe by a collection pipe . a. a shell and tube heat exchanger , positioned vertically along the internal perimeter of the apparatus; b. a tank positioned inside the shell and tube heat exchanger , wherein wastewater is stocked; c. an entrance pipe , for the entrance of wastewater, which pipe feeds a mechanic system , which allows wastewater to percolate along an internal wall of tank ; d. a pump and a second pump ; e. a pipe that connects the bottom of tank to suction of a pump ; f. a pipe connecting the mandate of pump to a distribution plate of heat exchanger ; g. a pipe connecting a bottom of the heat exchanger where concentrated water percolating into the pipes of the shell and tube heat exchanger collects, with suction of a second pump ; h. a pipe connecting a mandate of pump with the bulk of tank ; i. a ventilator, preferably a centrifuge ventilator ; j. an exit pipe connected to the ventilator, that draws vapors into exit from a head of the heat exchanger ; k. a system for collecting and discharging the condensed vapors which condenses in the dome of the apparatus, whose outside surface is configured to be in contact with external air, at ambient temperature; l. a system that maintains a level in the tank, which system is connected to an outlet pipe by a collection pipe .
A computer-implemented method when executed on data processing hardware causes the data processing hardware to perform operations comprising: receiving a first-pass speech recognition hypothesis and an encoded acoustic frame , the first-pass speech recognition hypothesis generated by a recurrent neural network (RNN) decoder model for the encoded acoustic frame ; the computer-implemented method being characterised by further comprising: encoding the first-pass speech recognition hypothesis at a hypothesis encoder ; generating, using a first attention mechanism attending to the encoded acoustic frame , a first context vector ; generating, using a second attention mechanism attending to the encoded first-pass speech recognition hypothesis , a second context vector ; and decoding the first context vector and the second context vector at a context vector decoder to form a second-pass speech recognition hypothesis . encoding the first-pass speech recognition hypothesis at a hypothesis encoder ; generating, using a first attention mechanism attending to the encoded acoustic frame , a first context vector ; generating, using a second attention mechanism attending to the encoded first-pass speech recognition hypothesis , a second context vector ; and decoding the first context vector and the second context vector at a context vector decoder to form a second-pass speech recognition hypothesis .
A method for preventing oil escape into an exhaust gas during operation of a turbocharged engine, comprising the steps of: providing pressurized air to an area sealing off a bearing housing of an axial turbine unit from an adjacent exhaust conduit downstream of the axial turbine unit; and detecting a malfunction in said provision of pressurized air; characterized by the step of: in response to such malfunction detection, controlling an exhaust pressure increasing device arranged downstream of the axial turbine unit for increasing the pressure inside the exhaust conduit upstream of the exhaust pressure increasing device. providing pressurized air to an area sealing off a bearing housing of an axial turbine unit from an adjacent exhaust conduit downstream of the axial turbine unit; and detecting a malfunction in said provision of pressurized air;
A transducer body mounting for at least partially housing an ultrasonic transducer of an ultrasonic fluid flow meter , the body mounting comprising a core of a first material; and an electrically insulating material , different to said first material, and formed at least partially over said core , wherein the core and the electrically insulating material are formed integrally with one another to form a mechanical interconnection between the core and the electrically insulating material , wherein the core is formed of an electrically conductive material; the first material is a substantially rigid material forming exposed opposing axial bearing faces of the body mounting; and the electrically insulating material is moulded over said core .
Monitoring system for real-time monitoring release of radioactive particles, the system comprising: - a controller for on-line determining a release level of radioactive particles from an exhaust; and - a detector that is operatively connected to the controller and wherein the detector is configured for detecting a level of radioactive particles, wherein the controller comprises: - an efficiency module that calculates the release level of radioactive particles from the exhaust using the real-time level of radioactive particles detected by the detector and - an alarm generator configured to report and/or generate an alarm if the release level of radioactive particles is above a threshold value; and characterized in that the calculation of the release level of radioactive particles by the efficiency module makes use of an on-line efficiency model, and - in that the on-line efficiency model has inputs configured to receive geometry specifications of the exhaust and has a further input to receive detector specifications, wherein the on-line efficiency model is constructed from a generic off-line simulation model; and wherein the off-line simulation model is a generic off-line simulation model that is generally applicable to a range of building facilities. - a controller for on-line determining a release level of radioactive particles from an exhaust; and - a detector that is operatively connected to the controller and wherein the detector is configured for detecting a level of radioactive particles, - an efficiency module that calculates the release level of radioactive particles from the exhaust using the real-time level of radioactive particles detected by the detector and - an alarm generator configured to report and/or generate an alarm if the release level of radioactive particles is above a threshold value; and - in that the on-line efficiency model has inputs configured to receive geometry specifications of the exhaust and has a further input to receive detector specifications, wherein the on-line efficiency model is constructed from a generic off-line simulation model; and
A method comprising the following steps: - a step of feeding pipes made of thermoplastic material of the PVC-O type into a station (ST1) for receiving the pipe ; - a step of heating a first end portion (E1) of the pipe , in a heating station (ST3); - a step of belling the first end portion (E1) of the pipe , after the step of heating the first end portion (E1) of the pipe ; the method being characterised in that it also comprises: - a step of making an inner taper at a first end portion (E1) of the pipe , in a tapering station (SV), said inner taper being performed before the heating step. - a step of feeding pipes made of thermoplastic material of the PVC-O type into a station (ST1) for receiving the pipe ; - a step of heating a first end portion (E1) of the pipe , in a heating station (ST3); - a step of belling the first end portion (E1) of the pipe , after the step of heating the first end portion (E1) of the pipe ; - a step of making an inner taper at a first end portion (E1) of the pipe , in a tapering station (SV), said inner taper being performed before the heating step.
A power control apparatus for supplying a voltage to a sub-module for a Modular Multilevel Converter (MMC) in which multiple sub-modules are connected in series with each other, comprising: at least one first resistor connected between P and N buses of the MMC; a second resistor connected in series with the first resistor ; a switch connected in series with the second resistor ; a third resistor connected in parallel with the second resistor and the switch , which are connected in series; a Zener diode connected in parallel with the third resistor ; and a DC/DC converter connected across both ends of the Zener diode and configured to convert voltage across both ends of the Zener diode into a low voltage, and supply the low voltage to the sub-module, wherein a magnitude of current flowing through the Zener diode is controlled depending on ON/OFF switching of the switch . at least one first resistor connected between P and N buses of the MMC; a second resistor connected in series with the first resistor ; a switch connected in series with the second resistor ; a third resistor connected in parallel with the second resistor and the switch , which are connected in series; a Zener diode connected in parallel with the third resistor ; and a DC/DC converter connected across both ends of the Zener diode and configured to convert voltage across both ends of the Zener diode into a low voltage, and supply the low voltage to the sub-module, wherein a magnitude of current flowing through the Zener diode is controlled depending on ON/OFF switching of the switch .