mhurhangee/ep-ind-claims huggingface dataset:
Device (21;21') for applying a protective film onto the display of an electronic device, comprising: - a mount (23;23') comprising an outer perimeter frame (23b;23b'), the shape of the electronic device onto which the protective film is to be applied or a portion thereof being defined within said outer perimeter frame, said frame (23;23') further comprises a background wall (23a;23a') extending within said outer perimeter frame (23b;23b'); - one or more delimiting blocks (25;25') arranged along the perimeter of said frame (23b;23b') and protruding therefrom, so that said electronic device can be held within said frame (23b;23b'), characterized in that a seat or housing for a film is defined within said frame (23b;23b'), on the inner side with respect to said one or more delimiting blocks (25;25'), said seat or housing for a film being defined by a free border of said frame (23b;23b'), in that the whole shape of said electronic device is defined within said frame (23b;23b') and in that said device comprises a single delimiting block (25;25') extending along the whole perimeter of said frame. - a mount (23;23') comprising an outer perimeter frame (23b;23b'), the shape of the electronic device onto which the protective film is to be applied or a portion thereof being defined within said outer perimeter frame, said frame (23;23') further comprises a background wall (23a;23a') extending within said outer perimeter frame (23b;23b'); - one or more delimiting blocks (25;25') arranged along the perimeter of said frame (23b;23b') and protruding therefrom, so that said electronic device can be held within said frame (23b;23b'), characterized in that a seat or housing for a film is defined within said frame (23b;23b'), on the inner side with respect to said one or more delimiting blocks (25;25'), said seat or housing for a film being defined by a free border of said frame (23b;23b'), in that the whole shape of said electronic device is defined within said frame (23b;23b') and in that said device comprises a single delimiting block (25;25') extending along the whole perimeter of said frame.
Electric heating device comprising a heating body in which is installed at least one electric heating element, the operation of which is placed under the dependency of a control module that is a constituent of the heating device, the heating body comprising walls delimiting, at least partially, a cavity in which the control module is housed, characterized in that the electric heating element and the control module are suitable for being powered at low voltage, and in that an electrical insulator is provided which covers the walls delimiting the cavity, the electrical insulator taking the form of a flexible sheet with a form complementing the form of the walls (5, 12, 18) delimiting the cavity.
A human tear lipocalin mutein having binding specificity for IL-17A, wherein the mutein binds IL-17A with a K D of about 1 nM or lower, wherein the mutein has at least 85 % sequence identity to SEQ ID NO: 1, and wherein the mutein comprises the following amino acid residue mutations at sequence positions corresponding to the linear polypeptide sequence of mature human tear lipocalin (SEQ ID NO: 41): Arg 26 → Phe; Glu 27 → Trp; Phe 28 → Cys; Pro 29 → Ser; Glu 30 → Gly; Met 31 → Ile; Asn 32 → His; Leu 33 → Glu; Leu 56 → Asp; Ser 58 → Glu; Arg 60 → Phe; Cys 61 → Leu; Val 64 → Phe; His 92 → Arg; Cys101 → Ser; Glu 104 → Asp; Leu 105 → Cys; His 106 → Pro; deletion of Lys 108; Arg 111 → Pro; Lys 114 → Trp; and Cys 153 → Ser.
A terminal apparatus (1, 1A, 1B, 1C) comprising: a receiver configured to receive downlink control information; and a transmitter configured to transmit a Physical Uplink Shared CHannel, PUSCH, in an Uplink Pilot Time Slot, UpPTS, included in a special subframe based on the downlink control information, wherein the UpPTS is constituted by two or more SC-FDMA symbols, characterized in that the receiver is further configured to receive a random access response including a random access response grant and to receive information indicating a number of SC-FDMA symbol(s) among the two or more SC-FDMA symbols, the SC-FDMA symbol(s) being SC-FDMA symbol(s) used for transmitting the PUSCH, a subframe available for PUSCH transmission corresponding to the random access response grant is an uplink subframe other than the special subframe including the UpPTS, the random access response grant is received in subframe n, the random access response grant includes a delay field, the PUSCH transmission corresponding to the random access response grant is performed in a first available uplink subframe n+k satisfying k ≥ 6, in a case that the delay field is set to 0, and the PUSCH transmission corresponding to the random access response grant is performed in a next available uplink subframe after the first available uplink subframe n+k, in a case that the delay field is set to 1. a receiver configured to receive downlink control information; and a transmitter configured to transmit a Physical Uplink Shared CHannel, PUSCH, in an Uplink Pilot Time Slot, UpPTS, included in a special subframe based on the downlink control information, wherein the UpPTS is constituted by two or more SC-FDMA symbols, characterized in that the receiver is further configured to receive a random access response including a random access response grant and to receive information indicating a number of SC-FDMA symbol(s) among the two or more SC-FDMA symbols, the SC-FDMA symbol(s) being SC-FDMA symbol(s) used for transmitting the PUSCH, a subframe available for PUSCH transmission corresponding to the random access response grant is an uplink subframe other than the special subframe including the UpPTS, the random access response grant is received in subframe n, the random access response grant includes a delay field, the PUSCH transmission corresponding to the random access response grant is performed in a first available uplink subframe n+k satisfying k ≥ 6, in a case that the delay field is set to 0, and the PUSCH transmission corresponding to the random access response grant is performed in a next available uplink subframe after the first available uplink subframe n+k, in a case that the delay field is set to 1.
A system comprising: a drilling machine (120, 310); a capacitive probe (210, 320); and a probe deployment system (160, 330), mounted to the machine, for moving the capacitive probe inside a hole drilled by the machine to measure the drilled hole at different depths, wherein the probe deployment system includes a piezoelectric motor for incrementally moving the probe within drilled hole, and wherein the probe deployment system further includes an actuator for moving the probe from a home position to a deployed position over the drilled hole. a drilling machine (120, 310); a capacitive probe (210, 320); and a probe deployment system (160, 330), mounted to the machine, for moving the capacitive probe inside a hole drilled by the machine to measure the drilled hole at different depths, wherein the probe deployment system includes a piezoelectric motor for incrementally moving the probe within drilled hole, and wherein the probe deployment system further includes an actuator for moving the probe from a home position to a deployed position over the drilled hole.
A trawl door adapted for being towed through water, the improved trawl door including at least one main deflector (24, 25) having a profile formed by an inner surface and an outer surface, the profile of the main deflector (24, 25) spanning a chord length "C" that extends along a Chord Direction Line between leading and trailing edges (23, 14) of the main deflector (24, 25), the improved trawl door also including at least one leading edge slat (20, 22) at least a portion of which is located in front of the outer surface of the main deflector (24, 25), the trawl door having an acute angle of inclination (91, 92) between a chord line (81, 82) of the leading edge slat (20, 22) and the Chord Direction Line of the main deflector (24, 25), characterized in that the acute angle of inclination (91, 92) is at least thirty-five degrees (35°).
A combination vaccine comprising i. inactivated sabin strain of polio virus type I, II, III in a ratio of 40:8:32 units per 0.5 ml; ii. inactivated rotavirus strain 116E adsorbed to aluminium hydroxide present in an amount of 5μg/0.5 ml; iii. Bordetella pertussis protective antigen (aP) adsorbed to aluminium phosphate comprising pertussis toxoid present in an amount of 25 μg/0.5 ml and Filamentous Hemagglutinin in an amount of 25 μg/0.5 mL; iv. diphtheria toxoid adsorbed to aluminium phosphate in an amount of 25 LF/0.5 ml; v. tetanus toxoid adsorbed to aluminium phosphate in an amount of 7.5 LF/0.5 ml; vi. Haemophilus influenza type b PRP conjugate antigen (Hib) present in an amount of 10 μg/0.5 ml as capsular polysaccharide antigen; vii. Hepatitis B surface antigen (HBsAg) adsorbed to aluminium phosphate in an amount of 10 μg/0.5 ml; viii. 2-phenoxyethanol in an amount of 2.5 mg/0.5 ml; ix. and phosphate buffer saline, wherein the content of aluminium is 0.50 - 0.60 mg of Al +3 as aluminium phosphate and 0.25 - 0.30 mg of Al +3 as aluminium hydroxide. i. inactivated sabin strain of polio virus type I, II, III in a ratio of 40:8:32 units per 0.5 ml; ii. inactivated rotavirus strain 116E adsorbed to aluminium hydroxide present in an amount of 5μg/0.5 ml; iii. Bordetella pertussis protective antigen (aP) adsorbed to aluminium phosphate comprising pertussis toxoid present in an amount of 25 μg/0.5 ml and Filamentous Hemagglutinin in an amount of 25 μg/0.5 mL; iv. diphtheria toxoid adsorbed to aluminium phosphate in an amount of 25 LF/0.5 ml; v. tetanus toxoid adsorbed to aluminium phosphate in an amount of 7.5 LF/0.5 ml; vi. Haemophilus influenza type b PRP conjugate antigen (Hib) present in an amount of 10 μg/0.5 ml as capsular polysaccharide antigen; vii. Hepatitis B surface antigen (HBsAg) adsorbed to aluminium phosphate in an amount of 10 μg/0.5 ml; viii. 2-phenoxyethanol in an amount of 2.5 mg/0.5 ml; ix. and phosphate buffer saline,
A refrigerator comprising: a cabinet coupled to one or more doors (18a, 18b) forming a storage compartment; an air purifying duct system positioned in the storage compartment, wherein the air purifying duct system comprises: an air duct in fluid communication with the storage compartment; a fan configured to circulate air between the storage compartment and the air duct; an air circulation path configured to direct pathogens within the storage compartment into the air duct using the fan; and a nano-coating disposed on an interior surface of the air purifying duct system, wherein said nano-coating includes an antimicrobial surface comprising metals, metal oxides, metal blends, metal oxide blends, and/or metal and metal oxide blends that inhibit, damage, and/or kill microorganisms including bacteria. a cabinet coupled to one or more doors (18a, 18b) forming a storage compartment; an air purifying duct system positioned in the storage compartment, wherein the air purifying duct system comprises: an air duct in fluid communication with the storage compartment; a fan configured to circulate air between the storage compartment and the air duct; an air circulation path configured to direct pathogens within the storage compartment into the air duct using the fan; and a nano-coating disposed on an interior surface of the air purifying duct system, wherein said nano-coating includes an antimicrobial surface comprising metals, metal oxides, metal blends, metal oxide blends, and/or metal and metal oxide blends that inhibit, damage, and/or kill microorganisms including bacteria. an air duct in fluid communication with the storage compartment; a fan configured to circulate air between the storage compartment and the air duct; an air circulation path configured to direct pathogens within the storage compartment into the air duct using the fan; and a nano-coating disposed on an interior surface of the air purifying duct system, wherein said nano-coating includes an antimicrobial surface comprising metals, metal oxides, metal blends, metal oxide blends, and/or metal and metal oxide blends that inhibit, damage, and/or kill microorganisms including bacteria.
A method for access control performed by a User Equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, a system information block, SIB, including an application category to be barred and a value related to a timer corresponding to the application category to be barred; identifying that a service request based on an application is triggered; identifying a category of the application; checking whether the category of the application belongs to the application category to be barred; determining whether the UE holds the service request based on the checking result; and holding the service request until the timer is expired. receiving, from a base station, a system information block, SIB, including an application category to be barred and a value related to a timer corresponding to the application category to be barred; identifying that a service request based on an application is triggered; identifying a category of the application; checking whether the category of the application belongs to the application category to be barred; determining whether the UE holds the service request based on the checking result; and holding the service request until the timer is expired.
Surgical thread comprising at least a first portion extending longitudinally and comprising a central thread covered with a sheath, said sheath comprising fastening means (111, 112) each comprising at least one conical barb (1111, 1121), wherein the fastening means (111, 112) are formed with the sheath without requiring reworking to form the fastening means (111, 112) in the form of conical barbs (1111, 1121) each having an angle of inclination between 10° and 75° with the longitudinal axis of the surgical thread, and characterised in that the central thread is devoid of fastening means.
Decorative element comprising several stones assembled together in a joined fashion in a closed frame to form two decorative faces, the stones comprising two opposite external faces (10, 12) which are the decorative faces and internal faces serving as joints (20, 22) between these stones, as well as edging (24, 26) with the frame's interior contour, some of these internal faces (22, 24) having grooves which are arranged inside the volume of the frame and which have accommodating bars, the ends of which cross the contour of this frame at two opposing points in order to be secured, wherein said decorative element is characterized in that all sides of the interior contour of the closed frame have a protruding section which fits into corresponding channels made in the internal edging faces (24, 26) of the stones.
A method comprising: detecting a call directed to a wireless communication device from a caller; generating, in response to the call, one of a plurality of reply messages for the caller; transmitting the generated reply message to the caller; characterized in that the method further comprises: identifying a context of the wireless communication device based on input information generated by at least one input of the wireless communication device, the context of the wireless communication device being determined as a function of one or more of an operational status, environmental status, usage status or location status of the wireless communication device; and wherein the generated reply message includes data generated in real time based on the identified context of the wireless communication device (102; 204). detecting a call directed to a wireless communication device from a caller; generating, in response to the call, one of a plurality of reply messages for the caller; transmitting the generated reply message to the caller; characterized in that the method further comprises: identifying a context of the wireless communication device based on input information generated by at least one input of the wireless communication device, the context of the wireless communication device being determined as a function of one or more of an operational status, environmental status, usage status or location status of the wireless communication device; and identifying a context of the wireless communication device based on input information generated by at least one input of the wireless communication device, the context of the wireless communication device being determined as a function of one or more of an operational status, environmental status, usage status or location status of the wireless communication device; and
Target (100, 100', 100"), comprising - at least one dummy depicting at least one part of the human body, wherein the dummy depicting at least one part of the human body comprises a plurality of sensors (105, 106, 120, 121, 122, 123), which communicate with a sensor data evaluating apparatus for the registration of the sensors' (105, 106, 120, 121, 122, 123) data, characterized in that the sensor data evaluating apparatus determines by mathematical correlation of points in time (t 1, t 2, t 3) of a maximum pressure (Pmax 1, Pmax 2, Pmax 3) from sensor data of the plurality of sensors (105, 106, 120, 121, 122, 123) the point of entry T ⇀ and the trajectory of a projectile penetrating the dummy. - at least one dummy depicting at least one part of the human body, wherein the dummy depicting at least one part of the human body comprises a plurality of sensors (105, 106, 120, 121, 122, 123), which communicate with a sensor data evaluating apparatus for the registration of the sensors' (105, 106, 120, 121, 122, 123) data, characterized in that
An electric power tool having a plurality of operation modes and comprising: a lighting unit that is adapted to irradiate light to an exterior of the electric power tool; a motor that is adapted to generate rotational driving force so as to drive a tool element; a setting switch that is adapted to be turned ON or OFF characterized in that said setting switch is adapted to be turned ON or OFF so as to change a setting of the operation modes and a setting of lighting modes, the lighting modes indicating whether or not the lighting unit is turned on; and in that the electric power tool further comprises a setting switching unit (12, 21) that is adapted to change the setting of the operation modes and the setting of the lighting modes corresponding to a manner of operation provided to the setting switch; a motor control unit that is adapted to control the motor according to a control method for one of the operation modes currently set by the setting switching unit (12, 21); and a lighting control unit that is adapted to control whether or not the lighting unit is turned on corresponding to one of the lighting modes currently set by the setting switching unit (12, 21), wherein, when the setting switch is turned on, the setting switching unit (12, 21) changes one of the setting of the operation modes and the setting of the lighting modes corresponding to a duration time of an ON state of the setting switch. a lighting unit that is adapted to irradiate light to an exterior of the electric power tool; a motor that is adapted to generate rotational driving force so as to drive a tool element; a setting switch that is adapted to be turned ON or OFF characterized in that said setting switch is adapted to be turned ON or OFF so as to change a setting of the operation modes and a setting of lighting modes, the lighting modes indicating whether or not the lighting unit is turned on; and in that the electric power tool further comprises a setting switching unit (12, 21) that is adapted to change the setting of the operation modes and the setting of the lighting modes corresponding to a manner of operation provided to the setting switch; a motor control unit that is adapted to control the motor according to a control method for one of the operation modes currently set by the setting switching unit (12, 21); and a lighting control unit that is adapted to control whether or not the lighting unit is turned on corresponding to one of the lighting modes currently set by the setting switching unit (12, 21), wherein, when the setting switch is turned on, the setting switching unit (12, 21) changes one of the setting of the operation modes and the setting of the lighting modes corresponding to a duration time of an ON state of the setting switch.
A method for manufacturing an optical coherence tomography apparatus (200; 500), the method comprising steps of: providing a first arm including a first dispersive optical assembly (120, 130, 134) inducing a first amount of dispersion into light coming from a light source and traversing the first arm, the first arm configuring one of a sample arm and a reference arm of an interferometer; providing a second arm including a second dispersive optical assembly (120, 144, 146, 148) inducing a second amount of dispersion into light coming from the light source and traversing the second arm, the second arm configuring the other of the sample arm and reference arm, the second amount of dispersion being substantially equal to the first amount of dispersion; providing a substitute optical component (520, 530); modifying one of the first and second arms by replacing at least one optical component (120, 130, 146, 148) in the one of the first and second arms with the substitute optical component (520, 530) to thereby change the amount of dispersion of the one of the first and second arms; and providing a processing unit (262; 562) configured to process an interferometry signal to perform Dispersion Encoded Full Range optical coherence tomography, the interferometry signal representative of a superposition of the light from the modified and the other of the first and second arms. providing a first arm including a first dispersive optical assembly (120, 130, 134) inducing a first amount of dispersion into light coming from a light source and traversing the first arm, the first arm configuring one of a sample arm and a reference arm of an interferometer; providing a second arm including a second dispersive optical assembly (120, 144, 146, 148) inducing a second amount of dispersion into light coming from the light source and traversing the second arm, the second arm configuring the other of the sample arm and reference arm, the second amount of dispersion being substantially equal to the first amount of dispersion; providing a substitute optical component (520, 530); modifying one of the first and second arms by replacing at least one optical component (120, 130, 146, 148) in the one of the first and second arms with the substitute optical component (520, 530) to thereby change the amount of dispersion of the one of the first and second arms; and providing a processing unit (262; 562) configured to process an interferometry signal to perform Dispersion Encoded Full Range optical coherence tomography, the interferometry signal representative of a superposition of the light from the modified and the other of the first and second arms.
Tool for fastening an element adapted to reversibly block a horizontal wire onto a rod for plants, said rod being vertically stuck into the ground, comprising a command handle extending along a rectilinear axis (X-X), a first portion being one piece with said handle and a second portion hinged onto said first portion by means of a rotating pin, wherein said first portion and said second portion delimit a space for receiving said rod and said blocking element, said first portion comprising a fork for pushing arms of said blocking element and said second portion comprising a first fork for centring the rod and for engaging in rotation with said wire, said first fork being rotatable fixed outwardly to said first portion characterised in that a second fork for partially diverging said arms, which second fork is rotatable fixed internally to said fork for pushing of said first portion.