mhurhangee/ep-ind-claims huggingface dataset:
A charged particle beam instrument having beam generating means for generating charged particles and for subjecting said particles to an accelerating voltage to create a beam, and an alignment element for controlling the alignment of the beam, the instrument having a user controllable operating parameter and at least one further operating parameter having a required value at least partially dependent on that of said user controllable parameter, the instrument also having memory means for storing a number of possible predetermined values of the further operating parameter, each said value corresponding to a respective possible value of the user controllable parameter, selection means (48, 50, 52) for selecting one of said stored possible values for the further parameter and controlling the instrument accordingly, wherein the instrument includes tuning means (50, 48) for enabling user to alter the selected value, and updating means (48, 50, 52) for updating the memory accordingly, so that the adjusted value of the further operating parameter is selected from the memory if the same value of user controllable parameter is then chosen again, and wherein said accelerating voltage constitutes the user controllable parameter and the further operating parameter comprises a setting for the alignment element.
An acoustic device, comprising: a vibration member having a first resonance frequency; and a housing accommodating the vibration member, having a second resonance frequency, and producing an alarm sound which is one of two or more kinds of alarm sounds having different fundamental frequencies and corresponds to a frequency of vibration of the vibration member, the two or more kinds of alarm sounds including a first alarm sound generated in response to a first signal and a second alarm sound generated in response to a second signal, wherein the acoustic device satisfies a following equation: f ≤ Fp − Fc where f denotes a highest one of the different fundamental frequencies of the two or more kinds of alarm sounds, Fp denotes the first resonance frequency, and Fc denotes the second resonance frequency. a vibration member having a first resonance frequency; and a housing accommodating the vibration member, having a second resonance frequency, and producing an alarm sound which is one of two or more kinds of alarm sounds having different fundamental frequencies and corresponds to a frequency of vibration of the vibration member, the two or more kinds of alarm sounds including a first alarm sound generated in response to a first signal and a second alarm sound generated in response to a second signal, wherein the acoustic device satisfies a following equation: f ≤ Fp − Fc where f denotes a highest one of the different fundamental frequencies of the two or more kinds of alarm sounds, Fp denotes the first resonance frequency, and Fc denotes the second resonance frequency.
A protein comprising a) a binding region capable of specifically binding at least one extracellular target biomolecule, b) a Shiga toxin A Subunit effector region comprising a polypeptide capable of exhibiting at least one Shiga toxin function, wherein the polypeptide comprises or consists of a sequence that is at least 85% identical to a sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3, and wherein the at least one Shiga toxin function is selected from the group consisting of: cellular internalization, subcellular routing, and cytotoxicity; and c) a carboxy-terminal endoplasmic reticulum retention/retrieval signal motif of a member of the KDEL family. a) a binding region capable of specifically binding at least one extracellular target biomolecule, b) a Shiga toxin A Subunit effector region comprising a polypeptide capable of exhibiting at least one Shiga toxin function, wherein the polypeptide comprises or consists of a sequence that is at least 85% identical to a sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3, and wherein the at least one Shiga toxin function is selected from the group consisting of: cellular internalization, subcellular routing, and cytotoxicity; and (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3, and c) a carboxy-terminal endoplasmic reticulum retention/retrieval signal motif of a member of the KDEL family.
A method for inspecting porosity or foreign debris in a structure having a ramp comprising: sending a signal into a structure at an angle substantially parallel to the ramp of the structure using a transducer array positioned at a first surface of the structure; forming an ultrasound response signal at a second surface of the structure, said second surface being parallel to the first surface and said ultrasound response signal being formed as a single reflection of said signal; and receiving the ultrasound response signal at the transducer array. sending a signal into a structure at an angle substantially parallel to the ramp of the structure using a transducer array positioned at a first surface of the structure; forming an ultrasound response signal at a second surface of the structure, said second surface being parallel to the first surface and said ultrasound response signal being formed as a single reflection of said signal; and receiving the ultrasound response signal at the transducer array.
An impact tool comprising: a motor drivable in an intermittent driving mode; a hammer connected to the motor; an anvil to be struck by the hammer to thereby rotate/strike a tip tool; and a control unit adapted to control a rotation of the motor by switching a driving pulse supplied to the motor in accordance with a load applied onto the tip tool; characterized in that the control unit is adapted to switch the driving pulse based on a change in a driving current flowing into the motor. a motor drivable in an intermittent driving mode; a hammer connected to the motor; an anvil to be struck by the hammer to thereby rotate/strike a tip tool; and a control unit adapted to control a rotation of the motor by switching a driving pulse supplied to the motor in accordance with a load applied onto the tip tool; characterized in that the control unit is adapted to switch the driving pulse based on a change in a driving current flowing into the motor.
A method of de-icing a return air intake of a transport refrigeration system, the method comprising: controlling, using a controller, a first plurality of components of the refrigeration system, the first plurality comprising at least one of a refrigerant heat absorption heat exchanger, a fan for the refrigerant heat absorption heat exchanger, and a heater; determining, using the controller, when a de-icing mode is required; deactivating, using the controller, a second plurality of components of the refrigeration system when the de-icing mode is required, the second plurality comprising the refrigerant heat absorption heat exchanger and the fan for the refrigerant heat absorption heat exchanger; activating, using the controller, the heater when the de-icing mode is required; adjusting, using the controller, the temperature of the heater to a selected temperature; deactivating, using the controller, the heater when the heater has reached the selected temperature; and permitting, using the controller, the second plurality of components of refrigeration system to remain deactivated for a selected time period, wherein the heater is located below the return air intake. controlling, using a controller, a first plurality of components of the refrigeration system, the first plurality comprising at least one of a refrigerant heat absorption heat exchanger, a fan for the refrigerant heat absorption heat exchanger, and a heater; determining, using the controller, when a de-icing mode is required; deactivating, using the controller, a second plurality of components of the refrigeration system when the de-icing mode is required, the second plurality comprising the refrigerant heat absorption heat exchanger and the fan for the refrigerant heat absorption heat exchanger; activating, using the controller, the heater when the de-icing mode is required; adjusting, using the controller, the temperature of the heater to a selected temperature; deactivating, using the controller, the heater when the heater has reached the selected temperature; and permitting, using the controller, the second plurality of components of refrigeration system to remain deactivated for a selected time period, wherein the heater is located below the return air intake.
A method of generating printhead actuation data for printing a 3-D object, the method comprising the steps of: slicing, for a given 3-D object having 3-D object data corresponding thereto, the 3-D object data into a series of layers; and generating a 2-D vector graphics image associated with each layer, wherein the colour and/or the density of colour within the 2-D vector graphics image at a given point is used to determine at least one property of the material to be ejected, during printing, at that given point in the image, further comprising the steps of saving the 2-D vector graphics images as a 2-D vector graphics file and analysing the metadata associated with a plurality of 2-D vector graphics files when determining how to nest or stack the objects to be printed within a print box. slicing, for a given 3-D object having 3-D object data corresponding thereto, the 3-D object data into a series of layers; and generating a 2-D vector graphics image associated with each layer, wherein the colour and/or the density of colour within the 2-D vector graphics image at a given point is used to determine at least one property of the material to be ejected, during printing, at that given point in the image, further comprising the steps of saving the 2-D vector graphics images as a 2-D vector graphics file and analysing the metadata associated with a plurality of 2-D vector graphics files when determining how to nest or stack the objects to be printed within a print box.
A light-emitting diode device comprising: at least one light-emitting diode chip (1,1r,1g,1b), a housing comprising a carrier for the at least one light-emitting diode chip (1,1r,1g,1b) and reflector walls, and at least one control device, wherein each of the at least one light-emitting diode chips (1,1r,1g,1b) is arranged in the housing, the at least one control device is integrated into said carrier or the at least one control device is said carrier each of the at least one light-emitting diode chips (1,1r,1g,1b) is electrically connected to one of said at least one control devices, each of said at least one control devices comprises a data storage device in which brightness data for each of the at least one light-emitting diode chips (1,1r,1g,1b) which is connected to said at least one control device is stored, the at least one control device drives the connected light-emitting diode chip (1,1r,1g,1b) with a current which is selected according to stored brightness data for said light emitting-diode chip (1,1r,1g,1b), each of said at least one control devices comprises a thermal sensor which performs thermal shutdown of the light-emitting diode device, if one of the at least one light-emitting diode chips (1,1r,1g,1b) connected to the control device exceeds a selected safe operating temperature, and each of said at least one control devices comprises a temperature compensation circuit for the connected light-emitting diode chip (1,1r,1g,1b) which adjusts the current supplied to the light-emitting diode chip (1,1r,1g,1b) according to its operating temperature. at least one light-emitting diode chip (1,1r,1g,1b), a housing comprising a carrier for the at least one light-emitting diode chip (1,1r,1g,1b) and reflector walls, and at least one control device, wherein each of the at least one light-emitting diode chips (1,1r,1g,1b) is arranged in the housing, the at least one control device is integrated into said carrier or the at least one control device is said carrier each of the at least one light-emitting diode chips (1,1r,1g,1b) is electrically connected to one of said at least one control devices, each of said at least one control devices comprises a data storage device in which brightness data for each of the at least one light-emitting diode chips (1,1r,1g,1b) which is connected to said at least one control device is stored, the at least one control device drives the connected light-emitting diode chip (1,1r,1g,1b) with a current which is selected according to stored brightness data for said light emitting-diode chip (1,1r,1g,1b), each of said at least one control devices comprises a thermal sensor which performs thermal shutdown of the light-emitting diode device, if one of the at least one light-emitting diode chips (1,1r,1g,1b) connected to the control device exceeds a selected safe operating temperature, and each of said at least one control devices comprises a temperature compensation circuit for the connected light-emitting diode chip (1,1r,1g,1b) which adjusts the current supplied to the light-emitting diode chip (1,1r,1g,1b) according to its operating temperature.
A method for resetting a device or turning a computer program ON in the device, wherein the device comprises a counter or timer, a memory and a processor communicably coupled to the counter or timer and the memory; the method comprising: selecting a first milestone for the counter or timer, a second milestone for the counter or timer, one or more defined memory locations or other operational parameters using a user interface communicably coupled to the device; starting the counter or timer; for each of the defined memory locations: (a) determining a count of the counter or a time of the timer; (b) flagging the defined memory location when the count or time reaches the first milestone for the counter or timer (1606, 1706); (c) un-flagging the first defined memory location when the count or time reaches the second milestone for the counter or timer (1608, 1708); (d) turning the device OFF and then ON again (1610, 1710); (e) repeating steps (a) through (d) when the defined memory location is not flagged or any previous defined memory locations are not flagged (1612, 1712); repeating steps (a) through (e) until all the defined memory locations have been used and are flagged; and resetting the device or turning the computer program ON in the device, wherein the computer program causes the processor to execute one or more commands when the computer program is turned ON (1634, 1724). selecting a first milestone for the counter or timer, a second milestone for the counter or timer, one or more defined memory locations or other operational parameters using a user interface communicably coupled to the device; starting the counter or timer; for each of the defined memory locations: (a) determining a count of the counter or a time of the timer; (b) flagging the defined memory location when the count or time reaches the first milestone for the counter or timer (1606, 1706); (c) un-flagging the first defined memory location when the count or time reaches the second milestone for the counter or timer (1608, 1708); (d) turning the device OFF and then ON again (1610, 1710); (e) repeating steps (a) through (d) when the defined memory location is not flagged or any previous defined memory locations are not flagged (1612, 1712); (a) determining a count of the counter or a time of the timer; (b) flagging the defined memory location when the count or time reaches the first milestone for the counter or timer (1606, 1706); (c) un-flagging the first defined memory location when the count or time reaches the second milestone for the counter or timer (1608, 1708); (d) turning the device OFF and then ON again (1610, 1710); (e) repeating steps (a) through (d) when the defined memory location is not flagged or any previous defined memory locations are not flagged (1612, 1712); repeating steps (a) through (e) until all the defined memory locations have been used and are flagged; and resetting the device or turning the computer program ON in the device, wherein the computer program causes the processor to execute one or more commands when the computer program is turned ON (1634, 1724).
A double-aerosol device comprising: a plurality of inner containers (12; 13) that separately store a plurality of types of hair treatment compositions used by mixing as a hair dye, decoloring agent, or dye remover; and an outer container in which the plurality of inner containers (12; 13) are stored, wherein the hair treatment compositions are discharged to the outside by contracting the plurality of inner containers (12; 13) by a pressure of propellant, wherein the outer container is configured such that at least a part of the inside of the outer container is visible so as to confirm remaining amounts of the hair treatment compositions, and wherein each of the inner containers (12; 13) comprises a pouch (121; 131) that stores the hair treatment compositions, and a flow passage member (122; 132) that is fixed to a communication port of the pouch (121; 131) and has a rod-shaped part (125; 135) inserted into the pouch (121; 131), characterized in that the rod-shaped part (125; 135) of at least one of the plurality of inner containers (12; 13) comprises two parallel rods (127, 128) connected by a plurality of connecting parts, and protrusion parts (127C, 128C) formed on a lower end portion thereof, the protrusion parts (127C, 128C) having a width in the direction that is orthogonal to the surface of the pouch (121; 131) greater than a width of the parallel rods (127, 128) other than said lower end portion. a plurality of inner containers (12; 13) that separately store a plurality of types of hair treatment compositions used by mixing as a hair dye, decoloring agent, or dye remover; and an outer container in which the plurality of inner containers (12; 13) are stored, wherein the hair treatment compositions are discharged to the outside by contracting the plurality of inner containers (12; 13) by a pressure of propellant, wherein the outer container is configured such that at least a part of the inside of the outer container is visible so as to confirm remaining amounts of the hair treatment compositions, and wherein each of the inner containers (12; 13) comprises a pouch (121; 131) that stores the hair treatment compositions, and a flow passage member (122; 132) that is fixed to a communication port of the pouch (121; 131) and has a rod-shaped part (125; 135) inserted into the pouch (121; 131), characterized in that the rod-shaped part (125; 135) of at least one of the plurality of inner containers (12; 13) comprises two parallel rods (127, 128) connected by a plurality of connecting parts, and protrusion parts (127C, 128C) formed on a lower end portion thereof, the protrusion parts (127C, 128C) having a width in the direction that is orthogonal to the surface of the pouch (121; 131) greater than a width of the parallel rods (127, 128) other than said lower end portion.
A T-type calcium channel inhibitor for use to increase the efficacy of killing of proliferating cells by a cancer chemotherapeutic agent or radiation in the treatment of a cancerous or pre-cancerous disease or condition in a mammal, wherein the treatment comprises: (a) administering a therapeutically effective amount of a T type calcium channel inhibitor to increase the proportion of the proliferating cells in the G 1 phase; (b) stopping administration of the T type calcium channel inhibitor for a period of time; and (c) subsequently administering a dosage selected from the group consisting of a dosage of at least one cancer chemotherapeutic agent, a dosage of radiation, or a combination of at least one cancer chemotherapeutic agent and a dosage of radiation and combinations thereof, to kill the proportion of cells progressing past the G 1 phase of the cell cycle after the stopping of the administration of the T type calcium channel inhibitor; and (d) optionally administering a therapeutically effective amount of a T type calcium channel inhibitor after administering the dosage selected from the group consisting of a dosage of at least one chemotherapeutic agent, a dosage of radiation, and combinations thereof. (a) administering a therapeutically effective amount of a T type calcium channel inhibitor to increase the proportion of the proliferating cells in the G 1 phase; (b) stopping administration of the T type calcium channel inhibitor for a period of time; and (c) subsequently administering a dosage selected from the group consisting of a dosage of at least one cancer chemotherapeutic agent, a dosage of radiation, or a combination of at least one cancer chemotherapeutic agent and a dosage of radiation and combinations thereof, to kill the proportion of cells progressing past the G 1 phase of the cell cycle after the stopping of the administration of the T type calcium channel inhibitor; and (d) optionally administering a therapeutically effective amount of a T type calcium channel inhibitor after administering the dosage selected from the group consisting of a dosage of at least one chemotherapeutic agent, a dosage of radiation, and combinations thereof.
A liquid management system for supplying or receiving liquid at a controlled pressure, comprising: a closed reservoir having an inlet for receiving liquid from a first remote location and an outlet for supplying liquid to a second remote location; and a pumped outlet disposed at a height within the reservoir and arranged to remove excess liquid and gas contained within the reservoir, thereby maintaining the level of liquid in the reservoir at a constant height defined by the height of the pumped outlet. a closed reservoir having an inlet for receiving liquid from a first remote location and an outlet for supplying liquid to a second remote location; and a pumped outlet disposed at a height within the reservoir and arranged to remove excess liquid and gas contained within the reservoir, thereby maintaining the level of liquid in the reservoir at a constant height defined by the height of the pumped outlet.