mhurhangee/ep-ind-claims huggingface dataset:
A power supply system comprising: an electric generator; first electricity storage means capable of being charged with and discharging electric power generated by the electric generator; second electricity storage means capable of being charged with and discharging the generated electric power; two paths (C1, C2) connecting between the first electricity storage means and the second electricity storage means; switching means (50, 51) including a first switch configured to switch between a conductive state and a non-conductive state of one of the paths, and a second switch configured to switch between a conductive state and a non-conductive state of the other of the paths; and an electric load of a vehicle, the electric load being connected to the first electricity storage means side of the switching means (50, 51), characterized in that the electric generator is connected to the second electricity storage means side of the switching means (50, 51), and the power supply system further comprises a battery controller configured to: determine if actuation of the electric load has a possibility of requiring higher voltage than normal, and when it is determined that actuation of the electric load has the possibility of requiring higher voltage than normal, increase a remaining amount of charge in the second electricity storage means in advance. an electric generator; first electricity storage means capable of being charged with and discharging electric power generated by the electric generator; second electricity storage means capable of being charged with and discharging the generated electric power; two paths (C1, C2) connecting between the first electricity storage means and the second electricity storage means; switching means (50, 51) including a first switch configured to switch between a conductive state and a non-conductive state of one of the paths, and a second switch configured to switch between a conductive state and a non-conductive state of the other of the paths; and an electric load of a vehicle, the electric load being connected to the first electricity storage means side of the switching means (50, 51), characterized in that the electric generator is connected to the second electricity storage means side of the switching means (50, 51), and the power supply system further comprises a battery controller configured to: determine if actuation of the electric load has a possibility of requiring higher voltage than normal, and when it is determined that actuation of the electric load has the possibility of requiring higher voltage than normal, increase a remaining amount of charge in the second electricity storage means in advance. determine if actuation of the electric load has a possibility of requiring higher voltage than normal, and when it is determined that actuation of the electric load has the possibility of requiring higher voltage than normal, increase a remaining amount of charge in the second electricity storage means in advance.
A feeding device for feeding a developer, comprising: an accommodating member for accommodating the developer; a first feeding member, provided rotatably in said accommodating member, for feeding the developer in a first feeding direction, the first feeding member being provided with a first helical portion (87b1) having a first diameter; and a second feeding member, provided rotatably in said accommodating member, for feeding the developer being fed by the first feeding member in a second feeding direction crossing the first feeding direction, the second feeding member being provided with a second helical portion; characterized in that the first feeding member includes a first region (87b1) and a second region (87b2) in a named order with respect to the first feeding direction, the first region (87b1) being provided with the first helical portion (87b1), and the second region (87b2) being provided with a small diameter portion (87b2, 97c) having a second diameter smaller than the first diameter, wherein the second region (87b2) is provided between the first region (87b1) and a position where said first feeding member and said second feeding member cross each other, and the feeding device further comprises a wall provided in said accommodating member and extending in a direction from the small diameter portion (87b2, 97c) toward said second feeding member so that said wall is spaced with an increasing distance in said second feeding direction from said first feeding member along said first feeding member with respect to the first feeding direction to branch a flow path of the developer. an accommodating member for accommodating the developer; a first feeding member, provided rotatably in said accommodating member, for feeding the developer in a first feeding direction, the first feeding member being provided with a first helical portion (87b1) having a first diameter; and a second feeding member, provided rotatably in said accommodating member, for feeding the developer being fed by the first feeding member in a second feeding direction crossing the first feeding direction, the second feeding member being provided with a second helical portion; characterized in that the first feeding member includes a first region (87b1) and a second region (87b2) in a named order with respect to the first feeding direction, the first region (87b1) being provided with the first helical portion (87b1), and the second region (87b2) being provided with a small diameter portion (87b2, 97c) having a second diameter smaller than the first diameter, wherein the second region (87b2) is provided between the first region (87b1) and a position where said first feeding member and said second feeding member cross each other, and the feeding device further comprises a wall provided in said accommodating member and extending in a direction from the small diameter portion (87b2, 97c) toward said second feeding member so that said wall is spaced with an increasing distance in said second feeding direction from said first feeding member along said first feeding member with respect to the first feeding direction to branch a flow path of the developer.
Water treatment device of a steam iron having a valve device comprising a valve element for controlling the opening and closing of a passage between a water tank and a steam chamber of the steam iron, and having a water treatment unit which has a storage housing, in the storage space of which a water treatment agent is disposed for treating water accommodated in the water tank, characterised in that the water treatment unit is disposed on the valve element of the valve device.
A method of communication by a ProSe enabled terminal, the method comprising: receiving resource information for a discovery request message and a discovery response message from a base station; receiving the discovery request message including identification information of an application to be discovered from another terminal; identifying whether the identification information of the application to be discovered corresponds to identification information of an application running on the terminal; and transmitting, if the identification information of the application to be discovered corresponds to the identification information of the application running on the terminal, the discovery response message including information generated by the application running on the terminal. receiving resource information for a discovery request message and a discovery response message from a base station; receiving the discovery request message including identification information of an application to be discovered from another terminal; identifying whether the identification information of the application to be discovered corresponds to identification information of an application running on the terminal; and transmitting, if the identification information of the application to be discovered corresponds to the identification information of the application running on the terminal, the discovery response message including information generated by the application running on the terminal.
A method of producing a cationized cellulose, the method comprising step 1 and step 2, wherein cellulose is allowed to react with a cationizing agent represented by formula in step 2: step 1 of adding the cationizing agent represented by formula: wherein each of R 1 to R 3 is independently a hydrocarbon group having 1 to 3 carbon atoms and X- is an anionic atom or group, to the cellulose and mechanically decrystallizing by milling the cellulose such that a reduction (P 1) in crystallinity in step 1 represented by calculation formula: P 4 = crystallinity % of cellulose before starting step 1 − crystallinity % of cellulose after completing step 1 reaches 1 to 60%, thereby obtaining a mixture, and step 2 of adding a basic compound to the mixture obtained in step 1 in an amount of 0.01 to 1 equiv per one mole of anhydroglucose unit of the cellulose in the mixture and mechanically decrystallizing by milling the cellulose such that a reduction (P 2) in crystallinity in step 2 represented by calculation formula: P 2 = crystallinity % of cellulose before starting step 2 − crystallinity % of cationized cellulose after completing step 2 reaches 1 to 80%. step 1 of adding the cationizing agent represented by formula: wherein each of R 1 to R 3 is independently a hydrocarbon group having 1 to 3 carbon atoms and X- is an anionic atom or group, to the cellulose and mechanically decrystallizing by milling the cellulose such that a reduction (P 1) in crystallinity in step 1 represented by calculation formula: P 4 = crystallinity % of cellulose before starting step 1 − crystallinity % of cellulose after completing step 1 reaches 1 to 60%, thereby obtaining a mixture, and step 2 of adding a basic compound to the mixture obtained in step 1 in an amount of 0.01 to 1 equiv per one mole of anhydroglucose unit of the cellulose in the mixture and mechanically decrystallizing by milling the cellulose such that a reduction (P 2) in crystallinity in step 2 represented by calculation formula: P 2 = crystallinity % of cellulose before starting step 2 − crystallinity % of cationized cellulose after completing step 2 reaches 1 to 80%.
Mobile Recording device for recording data, particularly accident-related data of a person and/or a vehicle involved in an accident, said mobile recording device comprising storage means for storing said data, wherein said recording device comprises receiving means for receiving data, preferably identification data, from at least one further device (100', 200) external to said recording device, and wherein said mobile recording device is configured to at least temporarily store received data to said storage means, characterized by accident detection means configured to detect an accident condition in which the recording device and/or the further device or a respective user thereof is involved and in that said mobile recording device is configured to store data received from said further device to a non-volatile memory upon detection of an accident condition.
A glucagon peptide comprising (i) an amino acid sequence of native glucagon (SEQ ID NO: 1) fused at its C-terminus to GPSSGAPPPS (SEQ ID NO: 19), or (ii) an amino acid sequence of native glucagon (SEQ ID NO: 1) fused at its C-terminus to GPSSGAPPPS (SEQ ID NO: 19), comprising a substitution at one, two or three of the amino acids located at positions 2, 5, 7, 10,11,12, 13, 14, 16, 17, 18, 19, 20, 21, 24, 27, 28, or 29 of SEQ ID NO: 1, wherein the one, two, or three amino acid substitutions are selected from a. Ala, Thr, Pro, or Gly at position 2; b. Ala, Ser, Pro, or Gly at position 5; c. Ala, Ser, Pro, or Gly at position 7; d. Phe, Tip, or acetyl phenylalanine at position 10; e. Ala, Thr, Pro, or Gly at position 11; f. His, Arg, or Orn at position 12; g. Phe, Trp, or acetyl phenylalanine at position 13; h. Met, He, Val, Cys, Nle, or homocysteine at position 14; i. Ala, Thr, Pro, or Gly at position 16; j. His, Lys, or Orn at position 17; k. His, Lys, or Orn at position 18; l. Ser, Thr, Pro, or Gly at position 19; m. Asp, Asn, or Glu at position 20; n. Asn, Glu, or Gin at position 21; o. Asp, Asn, Glu at position 24 p. Leu, He, Val, Cys, Nle, or homocysteine at position 27; q. Asp, Glu, or Aln at position 28; and r. Ala, Ser, Pro, or Gly at position 29 or a pharmaceutically acceptable salt thereof, wherein the glucagon peptide exhibits improved solubility in aqueous solutions at physiological pH, relative to native glucagon, and wherein the peptide stimulates glucagon receptor activity as measured by cAMP production using the assay described in Example 13. a. Ala, Thr, Pro, or Gly at position 2; b. Ala, Ser, Pro, or Gly at position 5; c. Ala, Ser, Pro, or Gly at position 7; d. Phe, Tip, or acetyl phenylalanine at position 10; e. Ala, Thr, Pro, or Gly at position 11; f. His, Arg, or Orn at position 12; g. Phe, Trp, or acetyl phenylalanine at position 13; h. Met, He, Val, Cys, Nle, or homocysteine at position 14; i. Ala, Thr, Pro, or Gly at position 16; j. His, Lys, or Orn at position 17; k. His, Lys, or Orn at position 18; l. Ser, Thr, Pro, or Gly at position 19; m. Asp, Asn, or Glu at position 20; n. Asn, Glu, or Gin at position 21; o. Asp, Asn, Glu at position 24 p. Leu, He, Val, Cys, Nle, or homocysteine at position 27; q. Asp, Glu, or Aln at position 28; and r. Ala, Ser, Pro, or Gly at position 29
An attack detection system, which is configured for automatic detection of an identity attack and for initiating an automatic defense against the identity attack, the system comprising: a digital memory; a processor in operable communication with the memory, the processor configured to perform steps for detecting behavior which indicates an identity attack in or against a monitored network and for initiating an access restriction in response to the behavior, the steps including (a) determining that a credential used in a failed sign-in to a target account from a source location is a weak credential, (b) in response to the determining, updating a measure of weak credential failed sign-ins, (c) ascertaining that the updated measure satisfies an access restriction condition, and (d) in response to at least the ascertaining, initiating an access restriction on at least one of the target account and the source location, wherein the detecting the behavior is based on at least both noting sign-in failure and determining credential weakness, wherein determining that a credential used in a failed sign-in to a target account from a source account is a weak credential includes identifying a sign-in attempt, identifying the success or failure of the sign-in attempt, identifying the credential used in the sign-in attempt and then testing the credential's strength. a digital memory; a processor in operable communication with the memory, the processor configured to perform steps for detecting behavior which indicates an identity attack in or against a monitored network and for initiating an access restriction in response to the behavior, the steps including (a) determining that a credential used in a failed sign-in to a target account from a source location is a weak credential, (b) in response to the determining, updating a measure of weak credential failed sign-ins, (c) ascertaining that the updated measure satisfies an access restriction condition, and (d) in response to at least the ascertaining, initiating an access restriction on at least one of the target account and the source location, wherein the detecting the behavior is based on at least both noting sign-in failure and determining credential weakness, wherein determining that a credential used in a failed sign-in to a target account from a source account is a weak credential includes identifying a sign-in attempt, identifying the success or failure of the sign-in attempt, identifying the credential used in the sign-in attempt and then testing the credential's strength.
An on-board charging system for an electric vehicle, comprising: a direct current, DC, power supply configured to store or output DC power; a motor configured to drive the electric vehicle; an inverter configured to drive the motor based on a flow of current; an alternating current, AC, power supply configured to supply power to the DC power supply; a charging relay (107, 119) configured to perform a switching operation to supply DC power output from the inverter to the DC power supply; and an input relay configured to perform a switching operation to supply the AC power to the inverter, characterized in that the charging relay includes: a first charging relay disposed between the DC power supply and the inverter; a second charging relay, disposed between the motor and the input relay and including two charging relays connected in series. a direct current, DC, power supply configured to store or output DC power; a motor configured to drive the electric vehicle; an inverter configured to drive the motor based on a flow of current; an alternating current, AC, power supply configured to supply power to the DC power supply; a charging relay (107, 119) configured to perform a switching operation to supply DC power output from the inverter to the DC power supply; and an input relay configured to perform a switching operation to supply the AC power to the inverter, characterized in that the charging relay includes: a first charging relay disposed between the DC power supply and the inverter; a second charging relay, disposed between the motor and the input relay and including two charging relays connected in series.
Stimulation device having a sleeve-shaped body formed by an at least partially flexible wall which has a first end section with a first end forming a first end of the sleeve-shaped body and a second end section which is situated away from the first end section with a second end forming a second end of the sleeve-shaped body, lying substantially opposite the first end, arranged at a distance from the first end, and containing an opening for the inserting of a body part sensitive to stimulation into the sleeve-shaped body, a loading mechanism (26, 30, 32, 34) which is designed to act on the first end section of the wall of the sleeve-shaped body with a time-variable, in particular oscillating first force that varies the distance between the first end of the sleeve-shaped body and the second end of the sleeve-shaped body, alternately as a pulling force for relative lengthening of the distance between the first end and the second end of the sleeve-shaped body and as a compressive force for relative shortening of the distance between the first end and the second end of the sleeve-shaped body, and outside the sleeve-shaped body a first chamber is provided the wall of which has a first section, formed at least partially by the first end section of the wall of the sleeve-shaped body, characterised in that the loading mechanism (26, 30, 32, 34) is designed, in order to act on the first end section of the wall of the sleeve-shaped body with the first force as a pulling force, to produce a negative pressure in the first chamber for lengthening the distance between the first end and the second end of the sleeve-shaped body, and in order to act on the first end section of the wall of the sleeve-shaped body with the first force as a compressive force, to produce an overpressure in the first chamber. a loading mechanism (26, 30, 32, 34) which is designed to act on the first end section of the wall of the sleeve-shaped body with a time-variable, in particular oscillating first force that varies the distance between the first end of the sleeve-shaped body and the second end of the sleeve-shaped body, alternately as a pulling force for relative lengthening of the distance between the first end and the second end of the sleeve-shaped body and as a compressive force for relative shortening of the distance between the first end and the second end of the sleeve-shaped body, and outside the sleeve-shaped body a first chamber is provided the wall of which has a first section, formed at least partially by the first end section of the wall of the sleeve-shaped body, characterised in that the loading mechanism (26, 30, 32, 34) is designed, in order to act on the first end section of the wall of the sleeve-shaped body with the first force as a pulling force, to produce a negative pressure in the first chamber for lengthening the distance between the first end and the second end of the sleeve-shaped body, and in order to act on the first end section of the wall of the sleeve-shaped body with the first force as a compressive force, to produce an overpressure in the first chamber.
A tool for fixing a protective textile sleeve about an elongate member disposed therein, comprising: a clamp assembly having opposed clamp members (28,30) attached to one another for pivotal movement relative to one another between an open state and a closed state, said clamp members having clamping surfaces, at least one of said clamping surfaces having at least one outlet; a water source arranged in fluid communication with said at least one outlet; and a heat source configured to heat water from said water source to form steam, said steam being dispensable outwardly from said at least one outlet. a clamp assembly having opposed clamp members (28,30) attached to one another for pivotal movement relative to one another between an open state and a closed state, said clamp members having clamping surfaces, at least one of said clamping surfaces having at least one outlet; a water source arranged in fluid communication with said at least one outlet; and a heat source configured to heat water from said water source to form steam, said steam being dispensable outwardly from said at least one outlet.
A method for identifying a frame type, comprising: receiving current frame type information; obtaining previously received previous frame type information; generating frame identification information of a current frame using the current frame type information and the previous frame type information; and identifying a boundary line of a start portion and an end portion of the current frame using the frame identification information, wherein the frame identification information comprises forward type information and backward type information, wherein the forward type information is determined according to the previous frame type information, and wherein the backward type information is determined according to the current frame type information. receiving current frame type information; obtaining previously received previous frame type information; generating frame identification information of a current frame using the current frame type information and the previous frame type information; and identifying a boundary line of a start portion and an end portion of the current frame using the frame identification information, wherein the frame identification information comprises forward type information and backward type information, wherein the forward type information is determined according to the previous frame type information, and wherein the backward type information is determined according to the current frame type information.