mhurhangee/patent-ind-claim-en huggingface dataset:
Aboxing apparatus , comprising: a push-in mechanism that laterally pushes a plurality of articles (A) into a box (C), whose opening faces sideways, from a side; a holding and posture changing mechanism that holds the box whose opening faces sideways, and changes a posture of the box, after the articles have been pushed into the box by the push-in mechanism , by rotating the box whose opening faces sideways, such that the opening faces upward; and a holding member that holds at least a portion of the articles stored in the box at a time of a posture change operation of the box by the holding and posture changing mechanism. a push-in mechanism that laterally pushes a plurality of articles (A) into a box (C), whose opening faces sideways, from a side; a holding and posture changing mechanism that holds the box whose opening faces sideways, and changes a posture of the box, after the articles have been pushed into the box by the push-in mechanism , by rotating the box whose opening faces sideways, such that the opening faces upward; and a holding member that holds at least a portion of the articles stored in the box at a time of a posture change operation of the box by the holding and posture changing mechanism.
Coil mat receiving method to be performed in the course of manufacturing a component of an electric machine for inserting a coil mat of a plurality of conductors each having straight portions interconnected by winding heads into an annular arrangement of radially outwardly opening grooves , comprising: rolling up the coil mat onto the annular arrangement such that the straight portions are inserted into the grooves and compressing the rolled-up coil mat by exerting a radial pressure on the coil mat by means of at least one flexible band (54.1, 54.2) looped around the coil mat , wherein the radial pressure on the coil mat is controlled by adjusting a tension on the at least one flexible band (54.1, 54.2) looped around the coil mat , wherein for compression, an increase of the tension on the at least one flexible band (54.1, 54.2) looped around the coil mat is effected in order to exert the radial pressure on the coil mat . rolling up the coil mat onto the annular arrangement such that the straight portions are inserted into the grooves and compressing the rolled-up coil mat by exerting a radial pressure on the coil mat by means of at least one flexible band (54.1, 54.2) looped around the coil mat , wherein the radial pressure on the coil mat is controlled by adjusting a tension on the at least one flexible band (54.1, 54.2) looped around the coil mat , wherein for compression, an increase of the tension on the at least one flexible band (54.1, 54.2) looped around the coil mat is effected in order to exert the radial pressure on the coil mat .
A method for wireless communications, comprising: determining a frame timing of communications of a first radio access technology, RAT; aligning , by adjusting the internal clock of a second RAT based on the determined frame timing of the first RAT, a frame timing for communications of the second RAT with the frame timing of communications of the first RAT to reduce a number of receive periods of the second RAT that overlap in time with a plurality of transmit periods of the first RAT and further to reduce a number of transmit periods of the first RAT that overlap in time with more than one receive periods of the second RAT. determining a frame timing of communications of a first radio access technology, RAT; aligning , by adjusting the internal clock of a second RAT based on the determined frame timing of the first RAT, a frame timing for communications of the second RAT with the frame timing of communications of the first RAT to reduce a number of receive periods of the second RAT that overlap in time with a plurality of transmit periods of the first RAT and further to reduce a number of transmit periods of the first RAT that overlap in time with more than one receive periods of the second RAT.
A process of treating objects, particularly of cleaning and decontaminating and/or disinfecting and/or sterilizing objects, comprising the steps of a. providing a plasma processed gas (PPG); and b. contacting a liquid with said plasma processed gas (PPG), wherein in particular said liquid is water, thus yielding a sterilizing gas and a sterilizing liquid; characterized in that c. the object to be treated is contacted with said sterilizing liquid in a first treatment step; and d. subsequently, the object to be treated is contacted with a treatment gas in a second treatment step, wherein said treatment gas comprises said plasma processed gas (PPG) and/or said sterilizing gas. a. providing a plasma processed gas (PPG); and b. contacting a liquid with said plasma processed gas (PPG), wherein in particular said liquid is water, thus yielding a sterilizing gas and a sterilizing liquid; c. the object to be treated is contacted with said sterilizing liquid in a first treatment step; and d. subsequently, the object to be treated is contacted with a treatment gas in a second treatment step, wherein said treatment gas comprises said plasma processed gas (PPG) and/or said sterilizing gas.
A rifle scope comprising: a scope body ; a movable optical element defining an optical axis connected to the scope body ; a turret having a screw operably connected to the optical element for adjusting the optical axis in response to rotation of the screw ; the turret having a knob operably coupled to the screw to adjust the position of the screw ; the turret having an elevation cam disc that comprises a rotating element operably coupled to the knob; the turret having a stop element ; the elevation cam disc of the turret defining a first stop surface positioned for engagement by the turret stop element to limit rotation of the turret , such that the position at which the stop element engages the first stop surface defines a first limiting position of the screw and the movable optical element ; the elevation cam disc of the turret defining a second stop surface positioned for engagement by the turret stop element to limit rotation of the turret , such that the position at which the stop element engages the second stop surface defines a second limiting position of the screw and the moveable optical element , wherein the elevation cam disc comprises a recessed spiral channel which is defined by multiple circular arc segments concentric on a central axis, with the circular arc segments joined by angular transition segments , said channel terminating in said first and second stop surfaces . a scope body ; a movable optical element defining an optical axis connected to the scope body ; a turret having a screw operably connected to the optical element for adjusting the optical axis in response to rotation of the screw ; the turret having a knob operably coupled to the screw to adjust the position of the screw ; the turret having an elevation cam disc that comprises a rotating element operably coupled to the knob; the turret having a stop element ; the elevation cam disc of the turret defining a first stop surface positioned for engagement by the turret stop element to limit rotation of the turret , such that the position at which the stop element engages the first stop surface defines a first limiting position of the screw and the movable optical element ; the elevation cam disc of the turret defining a second stop surface positioned for engagement by the turret stop element to limit rotation of the turret , such that the position at which the stop element engages the second stop surface defines a second limiting position of the screw and the moveable optical element , wherein the elevation cam disc comprises a recessed spiral channel which is defined by multiple circular arc segments concentric on a central axis, with the circular arc segments joined by angular transition segments , said channel terminating in said first and second stop surfaces .
Vibration-insulating module device (100; 200; 300; 400; 500) comprising: six mass elements (101; 201; 301; 401; 501) respectively adjacent and not directly joined with each other; at least three stiffness elements (102; 202; 302; 402; 502) interconnected with each other; said six mass elements (101; 201; 301; 401; 501) comprising respective at least six anchor elements (103; 203; 303; 403; 503), each of said at least six anchor elements (103; 203; 303; 403; 503) being configured for mechanically connecting each one of said mass elements (101; 201; 301; 401; 501) with respective portions of two of said stiffness elements (102; 202; 302; 402; 502); characterized in that said mass elements (101; 201; 301; 401; 501) comprise respective channels (104; 504) for passage therein of said stiffness elements (102; 202; 302; 402; 502), and wherein said anchor elements (103; 203; 303; 403; 503) occupy a portion of said channels (104; 504). six mass elements (101; 201; 301; 401; 501) respectively adjacent and not directly joined with each other; at least three stiffness elements (102; 202; 302; 402; 502) interconnected with each other; said six mass elements (101; 201; 301; 401; 501) comprising respective at least six anchor elements (103; 203; 303; 403; 503), each of said at least six anchor elements (103; 203; 303; 403; 503) being configured for mechanically connecting each one of said mass elements (101; 201; 301; 401; 501) with respective portions of two of said stiffness elements (102; 202; 302; 402; 502); characterized in that said mass elements (101; 201; 301; 401; 501) comprise respective channels (104; 504) for passage therein of said stiffness elements (102; 202; 302; 402; 502), and wherein said anchor elements (103; 203; 303; 403; 503) occupy a portion of said channels (104; 504).
Plug connector, - having a plug connector housing which has - an input for connecting a supply voltage, and - an output for forwarding the supply voltage to a consumer of an electronic device , - wherein the plug connector housing can be plugged into a voltage supply plug-in location of a device housing of the electronic device in order to provide a voltage supply connection of the electronic device , and - wherein the plug connector housing has a seat for inserting a blower , - wherein independently from a blower installed in the seat , the plug connector is designed for an interruption-free voltage supply of the electronic device , - wherein a blower connection is provided for the voltage supply of the blower , - wherein a voltage supply of the blower is diverted within the plug connector housing from the supply voltage of the electronic device , - wherein the plug connector housing has openings for an air exchange, so that an air volume flow through the plug connector housing , which surrounds the blower , can be conveyed toward the device housing interior or from the device housing interior in order to effect a cooling of the consumers , characterized in that a blower is inserted in the seat and detachably connected to the seat . - having a plug connector housing which has - an input for connecting a supply voltage, and - an output for forwarding the supply voltage to a consumer of an electronic device , - an input for connecting a supply voltage, and - an output for forwarding the supply voltage to a consumer of an electronic device , - wherein the plug connector housing can be plugged into a voltage supply plug-in location of a device housing of the electronic device in order to provide a voltage supply connection of the electronic device , and - wherein the plug connector housing has a seat for inserting a blower , - wherein independently from a blower installed in the seat , the plug connector is designed for an interruption-free voltage supply of the electronic device , - wherein a blower connection is provided for the voltage supply of the blower , - wherein a voltage supply of the blower is diverted within the plug connector housing from the supply voltage of the electronic device , - wherein the plug connector housing has openings for an air exchange, so that an air volume flow through the plug connector housing , which surrounds the blower , can be conveyed toward the device housing interior or from the device housing interior in order to effect a cooling of the consumers , characterized in that a blower is inserted in the seat and detachably connected to the seat .
A collecting device for collection of airborne particles from a flow of air, said collecting device comprising: a first layer and a second layer , wherein the first layer and the second layer are arranged to be spaced apart for forming a particle collection chamber between the first and the second layer , wherein the first layer comprises a plurality of inlets configured to extend through the first layer for transporting the flow of air therethrough into the particle collection chamber ; wherein ends of the inlets are configured to face a first surface of the second layer for capturing airborne particles in the flow of air entering the particle collection chamber through the ends of the inlets by impaction of airborne particles on the first surface of the second layer ; wherein the second layer comprises a plurality of outlets configured to extend through the second layer for transporting the flow of air therethrough out of the particle collection chamber ; wherein the inlets and outlets are staggered such that the center axes of the inlets are displaced from the center axes of the outlets ; wherein the collecting device is configured such that the flow of air experiences a pressure drop when passing the collecting device , the pressure drop being lower than 3 kPa at a flow rate of 0.5 liters per second. a first layer and a second layer , wherein the first layer and the second layer are arranged to be spaced apart for forming a particle collection chamber between the first and the second layer , wherein the first layer comprises a plurality of inlets configured to extend through the first layer for transporting the flow of air therethrough into the particle collection chamber ; wherein ends of the inlets are configured to face a first surface of the second layer for capturing airborne particles in the flow of air entering the particle collection chamber through the ends of the inlets by impaction of airborne particles on the first surface of the second layer ; wherein the second layer comprises a plurality of outlets configured to extend through the second layer for transporting the flow of air therethrough out of the particle collection chamber ; wherein the inlets and outlets are staggered such that the center axes of the inlets are displaced from the center axes of the outlets ; wherein the collecting device is configured such that the flow of air experiences a pressure drop when passing the collecting device , the pressure drop being lower than 3 kPa at a flow rate of 0.5 liters per second.
A method, comprising: determining a plurality of contextual characteristics associated with a plurality of content segments; comparing the contextual characteristics to determine at least one contextual similarity level between the content segments; comparing the at least one contextual similarity level to a threshold similarity level, wherein the threshold similarity level corresponds to an overlapping field of view; determining at least one of a plurality of brightness levels, a plurality of blur levels, and a plurality of shake levels of the content segments; and selecting one of the content segments based at least in part on the contextual similarity level and at least one of the brightness levels, the blur levels, and the shake levels such that the contextual characteristics satisfy the threshold similarity level corresponding to the overlapping field of view. determining a plurality of contextual characteristics associated with a plurality of content segments; comparing the contextual characteristics to determine at least one contextual similarity level between the content segments; comparing the at least one contextual similarity level to a threshold similarity level, wherein the threshold similarity level corresponds to an overlapping field of view; determining at least one of a plurality of brightness levels, a plurality of blur levels, and a plurality of shake levels of the content segments; and selecting one of the content segments based at least in part on the contextual similarity level and at least one of the brightness levels, the blur levels, and the shake levels such that the contextual characteristics satisfy the threshold similarity level corresponding to the overlapping field of view.
A medical device for monitoring delivery of a therapy, comprising: a sensor sensing an optical sensor signal corresponding to light attenuation by a volume of body tissue of a patient; a therapy delivery module to deliver the therapy; and a processor configured to compute a first tissue oxygenation measurement from the optical sensor signal prior to initiating delivery of the therapy, compute a second tissue oxygenation measurement from the optical sensor signal subsequent to initiating delivery of the therapy, compare the second tissue oxygenation measurement to the first tissue oxygenation measurement, and determine whether the delivered therapy was successful in response to the comparison between the first tissue oxygenation measurement and the second tissue oxygenation measurement; wherein the processor determines whether the delivered therapy was successful in response to the second tissue oxygenation measurement being greater than the first tissue oxygenation measurement; wherein the first tissue oxygenation measurement and the second tissue oxygenation measurement indicate tissue oxygen saturation and hemoglobin concentration; and wherein computing the first tissue oxygenation measurement and the second tissue oxygenation measurement comprises computing a second derivative of light attenuation with respect to wavelength and computing a tissue oxygen saturation using the second derivative. a sensor sensing an optical sensor signal corresponding to light attenuation by a volume of body tissue of a patient; a therapy delivery module to deliver the therapy; and a processor configured to compute a first tissue oxygenation measurement from the optical sensor signal prior to initiating delivery of the therapy, compute a second tissue oxygenation measurement from the optical sensor signal subsequent to initiating delivery of the therapy, compare the second tissue oxygenation measurement to the first tissue oxygenation measurement, and determine whether the delivered therapy was successful in response to the comparison between the first tissue oxygenation measurement and the second tissue oxygenation measurement; wherein the processor determines whether the delivered therapy was successful in response to the second tissue oxygenation measurement being greater than the first tissue oxygenation measurement; wherein the first tissue oxygenation measurement and the second tissue oxygenation measurement indicate tissue oxygen saturation and hemoglobin concentration; and wherein computing the first tissue oxygenation measurement and the second tissue oxygenation measurement comprises computing a second derivative of light attenuation with respect to wavelength and computing a tissue oxygen saturation using the second derivative.
A composition for enteral administration to an infant comprising pasteurized cream derived from human milk, wherein the composition comprises 2.0-3.0 kcal/mL and 18-30% human milk fat.
A light control sheet (10, 10α) comprising: a first transparent electrode ; a second transparent electrode ; a first light control layer (13, 13α) which is disposed between the two transparent electrodes , the first light control layer (13, 13α) having light transmission properties which are changed by alteration in a voltage applied across the two transparent electrodes ; and a voltage control unit (15, 15α) that is arranged to apply AC voltage as the voltage applied across the two transparent electrodes , and to change a frequency of the applied AC voltage, characterized in that the voltage control unit (15, 15α) includes a random number generator that is arranged to generate a random number, and wherein the voltage control unit is arranged to set a frequency of AC voltage on a basis of a random number generated by the random number generator . a first transparent electrode ; a second transparent electrode ; a first light control layer (13, 13α) which is disposed between the two transparent electrodes , the first light control layer (13, 13α) having light transmission properties which are changed by alteration in a voltage applied across the two transparent electrodes ; and a voltage control unit (15, 15α) that is arranged to apply AC voltage as the voltage applied across the two transparent electrodes , and to change a frequency of the applied AC voltage, characterized in that the voltage control unit (15, 15α) includes a random number generator that is arranged to generate a random number, and wherein the voltage control unit is arranged to set a frequency of AC voltage on a basis of a random number generated by the random number generator .
An optical detector scatter cap assembly , the assembly comprising: an optical detector scatter cap comprising a housing having a proximal end and a distal end; an orifice at the distal end of the housing ; a scatter bar affixed to the housing of the optical detector scatter cap and extending across the orifice ; and the assembly further comprising a first cover bar that is configured to be reversibly mated with the scatter bar , wherein the first cover bar has a width that is equal to or greater than the scatter bar . an optical detector scatter cap comprising a housing having a proximal end and a distal end; an orifice at the distal end of the housing ; a scatter bar affixed to the housing of the optical detector scatter cap and extending across the orifice ; and the assembly further comprising a first cover bar that is configured to be reversibly mated with the scatter bar , wherein the first cover bar has a width that is equal to or greater than the scatter bar .
An incision closure appliance comprising: a base (12; 102) including a left panel (16; 106) and a right panel (14; 104), each panel having a tissue adherent lower surface, an upper surface, an inner edge , and an outer edge; left and right force distribution structures (20 and 18; 116 and 118) coupled to the left and right panels, respectively, wherein each force distribution structure comprises an axial spine (37; 120 and 124) and lateral supports (36; 122 and 126), such that opening of the inner edges of an incision between the panels deforms the inner edges of the right and left panels, the dimensional stability of the remainder of the panels being preserved by the lateral supports as well as the axial spines, wherein the force distribution structures (20 and 18; 116 and 118) are formed from flexible but not-distensible materials; and a closure assembly (22; 22'; 100) securable to the left and right panels to draw the inner edges of the panels together. a base (12; 102) including a left panel (16; 106) and a right panel (14; 104), each panel having a tissue adherent lower surface, an upper surface, an inner edge , and an outer edge; left and right force distribution structures (20 and 18; 116 and 118) coupled to the left and right panels, respectively, wherein each force distribution structure comprises an axial spine (37; 120 and 124) and lateral supports (36; 122 and 126), such that opening of the inner edges of an incision between the panels deforms the inner edges of the right and left panels, the dimensional stability of the remainder of the panels being preserved by the lateral supports as well as the axial spines, wherein the force distribution structures (20 and 18; 116 and 118) are formed from flexible but not-distensible materials; and a closure assembly (22; 22'; 100) securable to the left and right panels to draw the inner edges of the panels together.