Abstract: An object, for example a building, is divided into different sections. Each section comprises a plurality of computers, each controlling an individual escape route display or a group of escape route displays. The computers are controlled by monitoring sensors of the object section. The blueprint of the object section and a control algorithm for the safest escape route from the object section is stored in the computers. The invention further relates to an escape route display that can be used for a device of said kind.

Abstract: The pick-up device 1 disposed in the direction of travel in front of a harvesting machine 2 for cucumbers has a circulating conveyor belt 11 having upward jutting spikes 12 made of rubber or elastomeric plastic and further has an associated circulating cover belt 18 having upward jutting transverse moldings 22, which are tilted forward in the direction of circulation. Directly behind the place at which the spikes 12 reach with their tips the lowest point of their path of circulation, a cutting device 24 is active, which cut off the cucumber plants raised with the spikes 12. A sensing roll 30 resting on the ground 9 controls the height position of the pick-up device in such a way that the blades 27, 28 of the cutting device 24 and the tips of the spikes 12 do not penetrate into the ground 9, but always maintain a short distance from the ground. This configuration ensures an operation which is not disturbed by plant pile-up and even permits use in plasticulture.

Abstract: The pick-up device 1 disposed in the direction of travel in front of a harvesting machine 2 for cucumbers has a circulating conveyor belt 11 having upward jutting spikes 12 made of rubber or elastomeric plastic and further has an associated circulating cover belt 18 having upward jutting transverse moldings 22, which are tilted forward in the direction of circulation. Directly behind the place at which the spikes 12 reach with their tips the lowest point of their path of circulation, a cutting device 24 is active, which cut off the cucumber plants raised with the spikes 12. A sensing roll 30 resting on the ground 9 controls the height position of the pick-up device in such a way that the blades 27, 28 of the cutting device 24 and the tips of the spikes 12 do not penetrate into the ground 9, but always maintain a short distance from the ground. This configuration ensures an operation which is not disturbed by plant pile-up and even permits use in plasticulture.

Abstract: An object, for example a building, is divided into different sections. Each section comprises a plurality of computers, each controlling an individual escape route display or a group of escape route displays. The computers are controlled by monitoring sensors of the object section. The blueprint of the object section and a control algorithm for the safest escape route from the object section is stored in the computers. The invention further relates to an escape route display that can be used for a device of said kind.

Abstract: The present invention relates to novel nucleic acid molecules encoding a Rhesus D antigen contributing to the weak D phenotype which are characterized by one or a combination of missense mutations or by a gene conversion involving exons 6 to 9 of the RHD and RHCE genes. The present invention further relates to vectors comprising the nucleic acid molecules of the invention, to hosts transformed with said vectors, to proteins encoded by said nucleic acid molecules and to methods of producing such polypeptides. The fact that missense mutations and the conversion referred to above can be directly correlated to the weak D phenotype has a significant impact on the routine testing of blood samples. For example, oligonucleotides and antibodies can now be designed that generally allow the detection of weak D phenotypes in a sample. Such oligonucleotides, antibodies as well as a variety of diagnostic methods all fall within the scope of the present invention.

Abstract: The present invention relates to novel nucleic acid molecules encoding a Rhesus D antigen contributing to the weak D phenotype which are characterized by one or a combination of missense mutations or by a gene conversion involving exons 6 to 9 of the RHD and RHCE genes. The present invention further relates to vectors comprising the nucleic acid molecules of the invention, to hosts transformed with said vectors, to proteins encoded by said nucleic acid molecules and to methods of producing such polypeptides. The fact that missense mutations and the conversion referred to above can be directly correlated to the weak D phenotype has a significant impact on the routine testing of blood samples. For example, oligonucleotides and antibodies can now be designed that generally allow the detection of weak D phenotypes in a sample. Such oligonucleotides, antibodies as well as a variety of diagnostic methods all fall within the scope of the present invention.

Abstract: A lead-acid cell includes a case, positive and negative plates within the case, microporous separator material between adjacent plates and electrolyte in a starved amount, with the case having jar and covers joined by a weldment along overlapping cover and jars. The positive plates include a grid frame with an intermediate member extending between spaced apart generally peripheral portions of the frame, with pasted active material on the grid frame separated substantially into two portions by the intermediate member. Compressive force is adjustably continuously applied to the positive and negative plates within the case. The plates are suspended within the case at positions removed from the wall of the case, while plate growth is permitted in a manner that plate shorting is avoided.

Abstract: A reactance coil (1) has an annular core (2) on which reactance coils are wound. Said reactance coils (3) are divided up into coil sectors 6 (4) that are separated from each other by means of gaps (5) in the windings. The gaps (5) in the windings reduce reactance coil (3) capacity and the reactance coils (3) have resonances with higher maximum values for impedance and greater bandwidths.

Abstract: A lead-acid cell includes a case, positive and negative plates within the case, microporous separator material between adjacent plates and electrolyte in a starved amount, with the case having jar and covers joined by a weldment along overlapping cover and jars. The positive plates include a grid frame with an intermediate member extending between spaced apart generally peripheral portions of the frame, with pasted active material on the grid frame separated substantially into two portions by the intermediate member. Compressive force is adjustably continuously applied to the positive and negative plates within the case. The plates are suspended within the case at positions removed from the wall of the case, while plate growth is permitted in a manner that plate shorting is avoided.

Abstract: A lead-acid cell includes a case, positive and negative plates within the case, microporous separator material between adjacent plates and electrolyte in a starved amount, with the case having jar and covers joined by a weldment along overlapping cover and jars. The positive plates include a grid frame with an intermediate member extending between spaced apart generally peripheral portions of the frame, with pasted active material on the grid frame separated substantially into two portions by the intermediate member. Compressive force is adjustably continuously applied to the positive and negative plates within the case. The plates are suspended within the case at positions removed from the wall of the case, while plate growth is permitted in a manner that plate shorting is-avoided.

Abstract: A lead-acid cell includes a case, positive and negative plates within the case, microporous separator material between adjacent plates and electrolyte in a starved amount, with the case having jar and covers joined by a weldment along overlapping cover and jars. The positive plates include a grid frame with an intermediate member extending between spaced apart generally peripheral portions of the frame, with pasted active material on the grid frame separated substantially into two portions by the intermediate member. Compressive force is adjustably continuously applied to the positive and negative plates within the case. The plates are suspended within the case at positions removed from the wall of the case, while plate growth is permitted in a manner that plate shorting is avoided.

Abstract: A cable window lifter for motor vehicles, with a guide rail, with a follower for a window pane which is mounted displaceable on the guide rail, and with a cable loop which is fixedly connected to the follower, in active connection with a drive unit, and is guided through guide pulley elements along the guide rail. The follower has a swivel mounted blocking element with a support area, preferably a support edge, which can be brought into positive locking engagement with a support element provided on the guide rail through swivel action of the follower. The support area of the follower associated with the support element is at a distance from the draw axis of the cable loop. The support element is mounted underneath the friction element. The window pane is in articulated connection with the follower.

Abstract: A lead-acid cell includes a case, positive and negative plates within the case, microporous separator material between adjacent plates and electrolyte in a starved amount, with the case having jar and covers joined by a weldment along overlapping cover and jars. The positive plates include a grid frame with an intermediate member extending between spaced apart generally peripheral portions of the frame, with pasted active material on the grid frame separated substantially into two portions by the intermediate member. Compressive force is adjustably continuously applied to the positive and negative plates within the case. The plates are suspended within the case at positions removed from the wall of the case, while plate growth is permitted in a manner that plate shorting is avoided.

Abstract: A lead-acid battery includes a compartmented case and a polarity of electrochemically lead-acid cells serially connected via respective positive and negative terminals. Each cell includes planar positive and negative plates and resides in one compartment of the case. The battery further includes an electrochemically inactive cell serially connected with the electrochemically active cells and being intermediately disposed respecting the electrochemically active cells. Plates of the inactive cell preferably have connecting lugs extending therefrom which align with corresponding connecting lugs of the positive and negative plates of the active cells. Rigid homogeneous foam separates the inactive cell plates from one another and fills the inactive cell compartment thereby providing support for the inactive cell plates.

Abstract: A lead-acid cell includes a case, positive and negative plates within the case, microporous separator material between adjacent plates and electrolyte in a starved amount, with the case having jar and covers joined by a weldment along overlapping cover and jars. The positive plates include a grid frame with an intermediate member extending between spaced apart generally peripheral portions of the frame, with pasted active material on the grid frame separated substantially into two portions by the intermediate member. Compressive force is adjustably continuously applied to the positive and negative plates within the case. The plates are suspended within the case at positions removed from the wall of the case, while plate growth is permitted in a manner that plate shorting is avoided.

Abstract: A lead-acid cell includes a case, positive and negative plates within the case, microporous separator material between adjacent plates and electrolyte in a starved amount, with the case having jar and covers joined by a weldment along overlapping cover and jars. The positive plates include a grid frame with an intermediate member extending between spaced apart generally peripheral portions of the frame, with pasted active material on the grid frame separated substantially into two portions by the intermediate member. Compressive force is adjustably continuously applied to the positive and negative plates within the case. The plates are suspended within the case at positions removed from the wall of the case, while plate growth is permitted in a manner that plate shorting is avoided.

Abstract: A lead-acid cell includes a case, positive and negative plates within the case, microporous separator material between adjacent plates and electrolyte in a starved amount, with the case having jar and covers joined by a weldment along overlapping cover and jars. The positive plates include a grid frame with an intermediate member extending between spaced apart generally peripheral portions of the frame, with pasted active material on the grid frame separated substantially into two portions by the intermediate member. Compressive force is adjustably continuously applied to the positive and negative plates within the case. The plates are suspended within the case at positions removed from the wall of the case, while plate growth is permitted in a manner that plate shorting is avoided.

Abstract: The present invention provides a circulating rack having an electric drive which can be pivoted, to a limited degree, in opposed directions dependent upon the transmitted torque of the electric drive. The drive is mounted on a pivotal rocker element which is displaced against the force of two counteracting elastically deformable abutments. A torque transmitted by the electric drive to overcome non-uniform loading of the circulating rack system causes the pivotal rocker to be displaced in either a clockwise or counterclockwise direction. A displacement measuring sensor measures the extent of pivotal movement of the rocker to provide an indication of the non-uniform loading condition so that corrective action may be taken. If the rocker is pivoted beyond a predetermined range, as for example that caused by a severe overloading condition, the displacement measuring sensor will cause the electric drive to turn off and prevent further circulation of the system until the overload has been corrected.